3bb87d260e131f2cfe71ac2081e87f83a58ac4fe
242
Commits
| Author | SHA1 | Message | Date | |
|---|---|---|---|---|
|
|
3bb87d260e |
fix(audio): detect jitter before it is audible, and stop re-probing a depth the link just refused
apple / swift (pull_request) Successful in 1m38s
apple / screenshots (pull_request) Skipped
windows / build (aarch64-pc-windows-msvc) (pull_request) Successful in 2m1s
windows / build (x86_64-pc-windows-msvc) (pull_request) Successful in 2m44s
ci / web (pull_request) Successful in 1m38s
android / android (pull_request) Successful in 4m52s
ci / docs-site (pull_request) Successful in 1m33s
ci / rust-arm64 (pull_request) Successful in 4m10s
ci / bun-nix (pull_request) Successful in 28s
ci / rust (pull_request) Successful in 9m26s
The 0.25.0 MacBook field report — audio jitter 'at certain points' — is the jitter policy learning exclusively from audible failures, on both of its sides. Growth needed THREE audible underruns before deepening the ring; the A/V sync loop re-tested a shallower ring every five quiet seconds and paid an audible starvation event every time it was wrong, forever; and a grown target was never re-banked — growth raises a threshold, only a re-prime deepens the ring — so a bunching link rode the knife edge, clicking once per bunching period with the 'grown' target sitting inert. A ten-minute simulation of the Wi-Fi power-save pattern (25 ms gaps / 300 ms, −50 ppm skew) measured ~2000 audible events under the shipped policy. Three mechanisms, in JitterPolicy (Linux/Windows/Android) and mirrored in the Swift AudioRing: - NEAR-MISS: a read served with less than one protocol frame left over is the same evidence as an underrun, heard by no one. It grows the target one step per window, BEFORE the click — waiting for the third audible underrun means the user heard two. - SHRINK PROBES: every shrink is armed for five seconds; answered by an underrun or near-miss it is undone on the spot, and a failed sync-driven shrink is not retried for a doubling backoff (60 s → 8 min). A probe that survives resets the backoff. Continuity outranks sync, now with a memory. - HOLLOW RE-PRIME: an underrun while the depth AVERAGE runs more than a step below the target re-primes immediately, spending the click it already cost on the whole refill instead of limping. The average, not the instant, is what separates a hollow ring from one late packet, and it is seeded on prime so a fresh ring is never spuriously hollow. Same simulation after: 9 audible events, tail clean but for the clock-skew re-anchor (a genuinely slow host must re-bank every few minutes; only rate adaptation would remove that, and no client has it). Neutralising the three constants reproduces the ~2000 — the convergence tests fail against the old behaviour. Verified: 203 punktfunk-core tests, 254 Swift tests (5 skipped), clippy -D warnings on punktfunk-core --all-features, cargo fmt --all --check. |
||
|
|
bfed711921 |
Merge remote-tracking branch 'origin/main' into audio/latency-overhaul
ci / bun-nix (pull_request) Successful in 33s
ci / web (pull_request) Successful in 1m9s
ci / docs-site (pull_request) Successful in 1m21s
apple / swift (pull_request) Successful in 1m33s
apple / screenshots (pull_request) Skipped
ci / rust-arm64 (pull_request) Successful in 2m13s
windows / build (x86_64-pc-windows-msvc) (pull_request) Successful in 2m36s
windows / build (aarch64-pc-windows-msvc) (pull_request) Successful in 1m9s
android / android (pull_request) Successful in 7m53s
ci / rust (pull_request) Successful in 12m23s
|
||
|
|
12a5318397 |
fix(audio): place audio with the picture instead of wherever the ring settles
The host stamps `pts_ns` on every audio datagram and the client decoded it
into `AudioPacket` — and then never read it. Video's `pts_ns` is used end to
end (the presenter computes a true glass-to-glass `displayed + clock_offset −
pts`), so audio free-ran at whatever depth its jitter ring happened to reach,
video was presented on an independent path, and nothing ever compared them.
The A/V offset was an accident of buffer depths: it moved whenever the ring
ratcheted under underrun pressure, and it got WORSE every time video got
faster, because a quicker decoder lowers the video leg and leaves audio's
exactly where it was. That is what a field report on the Steam Deck heard as
"the audio delay is way too high", and it is why shaving milliseconds off the
audio budget had not helped.
Video is the master. In a game streamer the video leg is the input-feel budget
and must never be inflated to satisfy the audio clock, while audio tolerates
small crossfaded corrections that are inaudible — and `crossfade_drop` already
applies them. So audio moves:
audio_e2e = (now + buffered_ahead + clock_offset) − pts_ns
av_offset = audio_e2e − video_e2e (> 0 ⇒ audio behind the picture)
`AvSync` smooths that with an EWMA, ignores what sits inside a deadband no
listener can detect, refuses the implausible outright rather than clamping it
(a wall-clock step must not steer the ring), and proposes a depth.
Continuity outranks sync, always. `JitterPolicy::set_sync_target` only ever
takes a REQUEST, clamped between the existing underrun-driven floor and the
hard cap. A link whose jitter genuinely needs more buffer than the picture is
away keeps its buffer and the residual is reported — sync can never starve the
ring into dropouts. `None` is the default and reproduces the previous behaviour
exactly, so the four client rings can adopt this one at a time without
diverging.
Two upstream defects found on the way, both prerequisites:
* The host stamped `pts_ns` at ENCODE time, inside the loop draining an
already-accumulated chunk, so every frame of a chunk carried near-identical
timestamps describing when we got round to encoding. Harmless while nothing
consumed it; a sync loop regulating against it would regulate against a
fiction. It now comes off the capture clock.
* The host did not pace. One capture callback hands over a whole quantum — 5 ms
when the graph honours our ask, 21.3 ms on a VM, where stock PipeWire raises
`min-quantum` to 1024 — and the loop drained all of it into back-to-back
`send_datagram` calls. The wire carried a 4-5 frame burst then ~21 ms of
nothing, and a ring can only absorb that by standing a burst period deep.
Frames now leave on the audio clock, which costs no average latency.
And the reason none of this was visible: `buffer_ms`/`target_ms` existed only
as a `tracing::debug!` line, absent from `Stats`. On a Deck the client runs
under Steam's `reaper` with stdout on a pipe nobody can read, so the one number
identifying a deep ring was unobtainable on the device reporting the latency.
The HUD now carries `audio buffer N ms · a/v ±N ms` — both, because a deep ring
on a jittery link is correct and only the offset separates that from audio held
late. The host also reports its negotiated quantum against the one it asked
for, per capture open rather than once per process.
Verified: 364 core + 40 presenter tests on Linux, clippy -D warnings clean on
punktfunk-{core,host} + pf-{client-core,presenter}, fmt clean. New tests pin
the safety invariant (sync cannot pull the target below the continuity floor on
any preset), that `None` leaves the policy bit-identical, and that a device
quantum exceeding the hard cap does not panic `Ord::clamp` inside a realtime
callback.
Android and Apple keep today's behaviour (the `None` default) until their
presenters publish a video figure to align against; design/audio-latency-
overhaul.md carries the plan.
|
||
|
|
d996449a82 |
fix(host/pads): a virtual pad at rest said it was in free fall
G14, unblocked by the frame measurement in
|
||
|
|
5c4969fd6b |
fix(client/pads): the gyro cut-off asked about the session, not the pad
Supersedes the check |
||
|
|
77797a9e20 |
feat(client/pads): stop streaming gyro into a session that cannot receive it
G8 of the gyro program, SDL-client half. The `Welcome` has always carried the backend the host actually RESOLVED, which is not necessarily the one the client asked for — Auto lands on Xbox 360 for anything not Sony/Valve/Xbox, and a Switch Pro on a Windows host folds to X360 too. No client read the field. So a player with an 8BitDo, or a Switch Pro on Windows, got a controller whose gyro did nothing, with nothing anywhere saying why: the client shipped ~250 Hz of Motion datagrams and the host parsed and discarded every one. `GamepadPref::has_motion()` answers whether a backend has a motion plane at all. The SDL client checks it on the first gyro sample: it logs one line naming the resolved backend and pointing at the fix (pick a DualSense-class controller type), then stops sending. Once per slot, not per sample — this path runs at the pad's sensor rate. `Auto` deliberately answers true. It means "unknown" — an old host that omitted the echo, which may well have resolved a DualSense — and suppressing motion on unknown would silently break working gyro, a worse failure than sending datagrams nobody reads. The predicate is an exhaustive match so a new backend has to state its answer rather than inherit one, and a table test pins both halves: a false negative kills working motion, a false positive keeps the void open, and both are silent. Owed: the plan wants this surfaced as a one-line UI hint, not just a log line. Apple already stores `resolvedGamepad` and Android needs the plumb; neither is done here, and both want their own gate. Gate (Linux CI image): fmt, build, clippy --all-targets -D warnings, and the test suites — green, with the new capability test observed running. |
||
|
|
4834c2ee51 |
fix(host/pads): DualShock 4 gyro ran 40× fast, and no pad ever stopped turning
Phase 1 of the gyro program (design/gyro-program.md, G1-G5) — the five correctness fixes under it. Gyro aim integrates angular velocity over time, so each of these is not a cosmetic wrongness: a wrong scale is every rotation being the wrong size, a wrong clock is every rotation being integrated against a fictional dt, and a stale sample is rotation that never happened. G1 — the DualShock 4 calibration blob. A Sony pad does not assume a motion scale, it reads one out of a fixed calibration feature report. Ours declared 0.5 LSB per °/s and 8192 LSB/g while the wire delivers 20 and 10000, so every DS4-type session decoded gyro 40× too fast and acceleration 1.22× hot — since the backend shipped. The blob now states the wire's own units (the DualSense blob's numbers, deliberately: both pads consume the identical wire sample). Its interleaved per-axis order is NOT a bug and stays: the virtual pad declares BUS_USB, where interleaved is the correct layout; grouped is Bluetooth's. The same blob lives a second time in the UMDF driver, which is a separate WDK workspace that cannot depend on pf-inject — one wrong table in two files, where fixing one reads as fixing it. Both are fixed, and the DS4 feature reports now live in dualshock4_proto beside the DualSense's rather than in the Linux backend, so there is one canonical copy to point at. Field hosts keep the old blob until they update the host package. G2 — the gate that would have caught it. Nothing pinned any backend's declaration against the wire, so tests/motion_contract.rs now applies the CONSUMER's arithmetic (the kernel's, and SDL's, which differ) to each backend and asserts the result lands back on the wire constants — for the DualSense and DS4 blobs, and for the Deck and Switch Pro rescales. It also parses the driver's Rust source and re-derives the units from THAT, so the two copies cannot drift. Verified non-vacuous both ways: re-introducing the old blob fails with "declares a fractional 32/64 LSB per °/s", and reverting only the driver's copy fails with "the UMDF driver's DS4_FEATURE_CALIBRATION has drifted from pf-inject's". The wire units themselves move to punktfunk_core::input::gamepad, referenced by the client's capture scale, the Deck/Switch rescales, and the probe — whose at-rest vector said 16384 (a driver's number, not the wire's) and now says 1 g. G3 — real sensor clocks. The DualSense advanced its sensor timestamp by +1 raw unit per report (0.33 µs — a frozen clock) and the DS4 by a flat +188 (~1 ms) regardless of the real 4-8 ms cadence. Anything integrating rate × dt off that field got nonsense. All four backends now stamp elapsed monotonic time in their own units via a shared SensorClock, anchored to the pad's first report so an irregular publish loop cannot make it drift, and truncated to the field width — which reproduces the wrap real hardware does. G4 — motion is level-triggered and had no watchdog. merge_frame preserves the last sample and the heartbeat re-emits it, so a feed that stops leaves the pad rotating forever — and with G3's honest clock, at a dt that keeps growing. Rumble and the pen plane each have an idle timeout; motion now has one too, at 100 ms. Angular velocity only: acceleration is kept, because gravity is legitimately persistent and blanking it reads as free-fall. The SDL client parks its gyro at zero when a slot closes, which is the case we can flush rather than wait out. (The Apple half of this rides in PR #88.) G5 — a pad returning inside the 300 ms replug grace keeps the same device and skips the create path, so a different controller inherits the previous one's touch contact and rotation — and a pad with no gyro never sends a sample to correct it. sweep() now reports re-claims separately from drops, and the manager clears the rich plane on one. Rich fields only: rumble and hidout dedup deliberately survive a removal. Gates (Linux, CI image): fmt, build, clippy --all-targets -D warnings over pf-inject/punktfunk-core/punktfunk-probe/pf-client-core, and the test suites — 110 pf-inject unit + 6 contract + 29 pf-client-core gamepad, all green. Not yet verified on glass; the on-glass sign/scale session is G16. |
||
|
|
bbbcf321e5 |
Merge origin/main into worktree-native-decode-m0
ci / web (pull_request) Successful in 1m19s
apple / swift (pull_request) Successful in 1m32s
ci / docs-site (pull_request) Successful in 1m23s
apple / screenshots (pull_request) Skipped
ci / bun-nix (pull_request) Successful in 25s
windows / build (aarch64-pc-windows-msvc) (pull_request) Successful in 1m8s
android / android (pull_request) Successful in 3m31s
windows / build (x86_64-pc-windows-msvc) (pull_request) Successful in 3m23s
ci / rust-arm64 (pull_request) Successful in 5m36s
nix / flake (pull_request) Failing after 11m59s
ci / rust (pull_request) Successful in 14m27s
main moved 93 commits while this branch ran. Two conflicts, both where main's new
work sat next to M10's excision:
packaging/flatpak/io.unom.Punktfunk.yml — main added the vendored gamescope WSI
layer (the only route to HDR on a Deck) and, before it, a vulkan-headers module.
Took both: this branch predates them and deletes neither. But the headers module's
stated consumer was pf-ffvk's bindgen over FFmpeg's hwcontext_vulkan.h, and M10
deleted pf-ffvk — so it now reads as dead weight to the next person. It is not:
the WSI layer IS a Vulkan layer, compiles against those headers, and builds after
it, so module order is the dependency. Rewrote the rationale to say so, including
why dropping it would be expensive to discover — flatpak.yml has no pull_request:
trigger, so a manifest break reaches main invisibly and a tag then ships no Linux
flatpak. Also recorded that the native decoder needs nothing from there: pf-vkdecode
reaches Vulkan through ash, which is pure Rust bindings, no bindgen, no C headers.
crates/pf-console-ui/src/screens/settings.rs — main restructured the gamepad
settings into TABS, which removed the per-row section headers; this branch had left
Some("Video") untouched from the merge base and added the pre-M10 decoder migration
next to it. Git could not tell those apart. Took main's structure (no header, its
deliberate change) with this branch's migration layered on: a stored `vulkan`,
`vaapi` or `d3d11va` names no preset in the tabbed list and would render as "—",
then silently rewrite the user's preference on the next save.
Gates on the merged tree, Linux container: fmt clean; cargo check --workspace
--all-targets clean; clippy --workspace --all-targets -D warnings clean; tests
green across pf-vkdecode (187), pf-client-core (163), pf-console-ui (58) and
punktfunk-host (447 of 448 — the one failure is the pre-existing
gamestream::stream::tests::sender_delivers_batches, a UDP-loopback EINTR under
qemu that fails identically on a pristine HEAD).
|
||
|
|
81d257c7fa |
fix(client/audio): the in-core decoder conceals lost packets like every other client
A field report: game audio on a MacBook (M1) crackles over Wi-Fi against a host that plays clean to other clients. The Apple client is the one client whose Opus decode lives in core (punktfunk_connection_next_audio_pcm — AudioToolbox has no multistream path), and that decoder only ever decoded packets that ARRIVED. The Linux, Windows and Android decode loops all feed an AudioGapTracker and synthesize libopus packet-loss concealment for every packet the wire lost; the in-core path had the tracker sitting unused in the same crate. So on Apple every lost 5 ms datagram — at ~200 packets/s over Wi-Fi, a steady trickle — landed in the playout ring as a hard time-domain gap: a click per loss, sustained crackle under real loss. The redundant-plane recovery (0xD2) hides single losses when the host grants it, which is exactly why the survivors are the burstier gaps that need concealing most. The decode now runs through the same accounting as everyone else: concealed frames land in front of the arriving frame in one contiguous buffer (the embedder just writes it to its ring), a DTX marker advances the accounting without being decoded, and the output buffer is pre-sized for a full concealment run so the borrow-until-next-call pointer can never dangle. Unit-tested against real libopus: gaps, duplicates, DTX-after-loss, and the 50 ms cap. |
||
|
|
5c05246098 |
feat: M10 — FFmpeg is gone from the client
cargo tree -p punktfunk-client-session finds no ffmpeg. The host still does, which is the whole point: pf-encode keeps libavcodec unconditionally and no host workflow, packaging script or licence file was touched. Deleted: crates/pf-ffvk, video_vulkan.rs, video_vaapi.rs, video_libav.rs, the libavcodec half of video_d3d11.rs, the av_log machinery, ffmpeg::codec::Id as the decoder's vocabulary (the quic CODEC_* wire constants now serve, which is why the evidence table was keyed on them), DecodedImage::VkFrame and ::Dmabuf, the presenter's AVVkFrame lane, and the ffmpeg-fallback feature with everything behind it. DrmFrameGuard collapses from an enum to a newtype, which removes an unsafe impl Send. Roughly 25,000 lines. Then the CI, packaging, licensing and docs work the plan's §6 lists: the Windows workflows lose FFMPEG_DIR, PF_FFVK_VULKAN_INCLUDE and their PATH prepend; the MSIX loses its DLL wildcard; the client .deb stops emitting libav sonames on its own because depends come from dpkg-shlibdeps; arch, flatpak and nix drop the dependency; and the README's "FFmpeg 7 or 8" contract narrows to the host. Three defects reached users' machines in the first cut, and none was in the deletion itself. All three desktop Settings UIs offer vulkan, vaapi and d3d11va as stored decoder values, so those strings sit in shipped settings files today. Refusing them by name — which is the correct rule for a stale pin — would have bricked every upgraded client whose owner ever touched that dropdown. They now migrate onto the native rung for the same hardware family, at decoder construction AND at each dialog's lookup, because a legacy value that matches no preset displays as "Automatic" and silently rewrites the user's preference on the next save. M9's evidence filter was deleted on the argument that with no libavcodec twin below, barring an unproven rung removes hardware decode rather than moving down one rung. That is true on Windows and false on Linux for Intel and every unknown vendor id, where prefer_vulkan_first is false and the order is native-vaapi → native-vk: a rung that has decoded nothing anywhere sitting above one that is 250/250 on three drivers. Every Intel Linux desktop would have moved from libavcodec VAAPI, shipping for years, onto pf-vaadec by default — and a rung that constructs and then produces wrong pixels leaves only by the error-streak demotion, which this codebase already documents as not tripping on the B580's strobing. The filter is restored as a narrow, pure, testable rule: an unproven rung yields to a proven one, and to nothing else. Windows deliberately passes no rung below, because that vendor family is the one with a measured wrong-pixel report against Vulkan decode, and trading no evidence for evidence of corruption is the wrong direction. And the notices still said FFmpeg was bundled. The root file is what both desktop clients include_str! and what the MSIX ships, three lines under the new card saying no FFmpeg is bundled; Apple's Acknowledgements said it too, on iOS, tvOS and macOS. The generator now emits four per-client files scoped by transitive closure — 0 FFmpeg mentions in each, verified — while the root file keeps it for the host. That also ends the standing false attribution of ffmpeg-next, GTK4, windows-rs and the NVENC SDK to an iPhone. Windows has no reachable box, so it was compiled instead: a cross clippy at -D warnings on x86_64 and aarch64-pc-windows-msvc with the C toolchain stubbed so build scripts run without linking. That gate immediately caught an include_str! path one directory too deep, which nothing else could have. Gates: container clippy -D warnings, 160 tests, workspace check, both Windows targets clean, client ffmpeg count 0 and host 2. The four decode crates are untouched, so the hardware rungs' 250/250 stands. ⚠ Owed and unrun: no GPU has executed any of this milestone. M8's on-glass software check, M7's D3D11 and VAAPI AV1 hardware legs, and M9's field bake all still want hardware, and the bake window and criteria remain the user's. |
||
|
|
ec44496285 |
feat(client): tell clients WHY a session ended, not just that it did
A session ending was a single bit. A player quitting their game, an operator ending the session from the console, a stop the client itself asked for, a host crashing and a Wi-Fi drop all arrived as the same "closed" — so every client had to write one message covering all of them, and every client picked an error. That is how quitting your own game came to be reported as trouble on all three. The information was already there and thrown away: the host closes with APP_EXITED when a launched game exits, with 0 when it ends the session cleanly and 1 when it fails, and a link that simply dies never closes at all. The connection watcher now classifies that into a PunktfunkEndReason — local, game exited, host ended, host error, lost — and latches it before the shutdown flag, since the two are read by different threads and the reason must never arrive second. Exposed as punktfunk_connection_end_reason. This replaces the game-exited flag added a moment ago rather than joining it: that question is one row of this table, and it was never released. Still additive to any embedder that ignores it, and the host sends the same bytes either way, so the wire is untouched. `is_normal()` is the question nearly every caller actually has, so both the Rust and C surfaces answer it directly rather than making each client re-derive which of five values are worth alarming a user about. |
||
|
|
d4dd5f7a3d |
feat(client): a game exiting takes you back to its library
Quit a game you launched from a host's library and the stream ended with "Session ended by <host>." on the host-selection screen — an error report for something you had just done on purpose, and several taps away from starting the next title. The host has always said what happened: it closes the connection with APP_EXITED when the game it launched for a session exits, and that code's own documentation describes this feature. Nothing ever read it — a search across every client found zero consumers. (It also could not reach anyone until the previous commit, since the close only happens once the lease declares the game gone.) The core now records the reason as it observes the close, latched before the shutdown flag because different threads watch the two, and exposes it as punktfunk_connection_game_exited. Purely additive: a client that never asks behaves exactly as before, the host sends identical bytes, and the wire version is untouched — ABI 17. The Apple client asks while the connection is still up, then treats a game exit as the normal finish it is: no error banner, and if the session began as a library launch it reopens that library so the next title is one tap away. Any other ending — a stop, the host going away, network loss — is unchanged. The other clients keep their existing end-of-session behaviour; the call is there when they want it. |
||
|
|
2a57ee36f8 |
feat(client): M4 — the decoder's own verdict reaches the session
This program exists because a field corruption was architecturally undetectable through FFmpeg: no decode-status read, no corrupt-frame flag, errors only as scraped log lines, and no recovery-point signal so intra-refresh healing was invisible. The native decoder has all of those. M4 is where they stop being internal. DecodeHealth counts, per session and without allocating per frame, what the three answers actually are: damaged (the stream arrived incomplete), refused (the rung would not decode it at all) and driver-failed (the hardware says it could not decode what arrived), plus the current and worst concealment run — the figures that separate one bad AU from a stream that never came back. They ride the stats line additively, so an FFmpeg session and a healthy native session emit byte-identical output to today. The status-query capability is reported too: without it a clean report cannot be told from an unmeasured one, which is the whole nb_queries=0 lesson. The headline is local recovery. Until now the pump could only learn that intra-refresh healing finished from wire flags the host sends; absent those it froze until the 500 ms backstop forced an IDR. The parsed recovery-point SEI now feeds the re-anchor gate directly, so a session lifts on the picture that is actually clean. Wire semantics are untouched for every client that never calls it. Detection now asks for recovery instead of erroring — an integrity warning ticking the error streak would demote the native rung on exactly the lossy links it exists to diagnose, where an FFmpeg rung conceals silently and keeps its job. Review round 12 found that trade had removed the escape hatch entirely. Concealment returning Ok(None) reset the demotion streak, and worse: the driver-verdict ledger is only populated when a frame ships, so under continuous concealment no verdict was ever read and the erroring arm could not fire at all. A host framing regression of the 0.23.0 slice-wire class — which does not self-heal, and which a keyframe does not clear — would have frozen indefinitely with no demotion and a clean integrity line, where before it demoted to FFmpeg-Vulkan and showed a picture. Now only an answer that proves the rung works clears the streak: a shipped frame, or a clean no-frame. Concealment neither ticks nor clears, so a lossy link still cannot demote a healthy rung while a driver failure interleaved with concealment reaches the threshold again. Two more honesty defects from the same round. A rung refusing every AU reported no integrity line at all — the founding failure mode, wearing the shape of a clean bill of health; refusals are now counted. And driver-failed could be non-zero on a device that cannot produce driver verdicts, because a degraded timeline read looked the same as one; the attribution is now withheld inside the counter rather than at call sites, so the self-contradictory line is unrepresentable. Local recovery also no longer trusts any recovery-point SEI: only one whose target advances past an outstanding wave counts as a new wave, so an encoder re-announcing the current wave with a decreasing count — legal, and what x264 intra-refresh does — cannot lift the freeze early onto a partially stale picture. Frames buffered across an arm are dropped by decode order for the same reason. Fault injection is a first-class tool now (PUNKTFUNK_AU_FAULT, inert unless set, env read once). Its test replays the vendored vectors through the real planners and asserts a negative the plan assumed away: truncation and bit flips are PROVABLY invisible to the parser — Annex-B carries no NALU length, so a cut slice is just a shorter slice and a flipped payload byte is syntactically perfect. Only dropped AUs are parser-detectable; the rest need the driver verdict, which is why the status query matters. The H.265 leg found a second: three of that vector's faulted AUs are sub-layer non-reference pictures, so dropping them damages nothing and silence is correct — the test asserts both verdicts and guards that neither half goes vacuous. Per-frame decode latency was deliberately NOT built. Polling answers only 'complete by now', and the pump polls once per AU, so every sample would quantise up by as much as a frame interval — 8.3 ms at 120 Hz against decodes of 0.1-2 ms. Sampling faster needs a spin or a second thread on a decoder that is deliberately not Sync. A blocking per-frame wait is the field scar that once capped a stream at 51 fps. The honest sampled stat stands. Also fixed, pre-existing: the re-anchor gate re-armed on every damaged AU, so sustained damage permanently zeroed the mark count — meaning the wire's two-mark rule could never complete on exactly the lossy links it was written for. Field note recorded while wiring this: intra_refresh_recovery is set by exactly one encoder backend (Linux libav-NVENC under PUNKTFUNK_INTRA_REFRESH). AMF and QSV run a wave with no wire mark, and AMF emits no recovery-point SEI either, so AMD/Windows intra-refresh sessions still have no clean recovery point by either route. Gates: fmt clean; container clippy -D warnings zero across pf-client-core + pf-presenter + pf-vkdecode + punktfunk-core; tests 69/131/129/354/41 plus 5 fault-detection green; cargo check --workspace clean. |
||
|
|
e5ca213339 |
fix(core/abr): a starved window is never a decode-knee sample
apple / swift (pull_request) Successful in 1m25s
apple / screenshots (pull_request) Skipped
windows / build (aarch64-pc-windows-msvc) (pull_request) Failing after 6m2s
windows / build (x86_64-pc-windows-msvc) (pull_request) Failing after 2m57s
ci / rust-arm64 (pull_request) Successful in 1m24s
ci / web (pull_request) Successful in 1m13s
ci / docs-site (pull_request) Successful in 1m47s
android / android (pull_request) Successful in 5m30s
ci / rust (pull_request) Successful in 9m50s
Stall program T2 (amplification kill), the phantom-latch half. A deciding window that delivered under a quarter of the target rate (a host-side capture stall, an outage, a mid-window pause) carries starvation-shaped distress — a jump-to-live flush, a keyframe-ask burst — that the decode-cap latch read as decoder evidence: under a periodic capture stall (the RDNA4 standby-sink field cases, one stall every ~5 s) every edge offers another 'backoff' at the SAME rate, and one pair latches a phantom decoder knee at whatever rate the display driver happened to interrupt. The session then fights the cap's re-probe ladder (+12.5% per 16-128 clean windows) for minutes on a decoder that was never the problem. Starved windows still back off (real damage deserves the safe response) but take the same 'not a knee sample either way' arm as a draining backoff: they neither latch a decode cap nor erase the reference a genuine choke set, so a real knee's pair still finds itself around the interruption. The ¼ bar sits deliberately far under the ×¾ utilization bar climbs require. Gates: 44 abr tests green (2 new: the stall-cycle no-latch scenario and the reference-preservation scenario), full core lib suite 346 green (--features quic), fmt + clippy clean. |
||
|
|
d27e62f7c9 |
fix(pad-audio): close the twelve findings the sweep left open on this branch
apple / swift (pull_request) Successful in 1m31s
apple / screenshots (pull_request) Skipped
windows / build (aarch64-pc-windows-msvc) (pull_request) Failing after 41s
ci / web (pull_request) Successful in 1m59s
ci / docs-site (pull_request) Successful in 1m59s
ci / rust-arm64 (pull_request) Successful in 4m5s
windows / build (x86_64-pc-windows-msvc) (pull_request) Failing after 2m37s
android / android (pull_request) Successful in 4m16s
ci / rust (pull_request) Failing after 10m50s
Everything the 2026-08-03 haptics sweep filed against the pad-audio branch (P2 + P3). Four of them are the difference between a feature that works and one that fails silently. **B6 — nothing ever un-muted the coils.** Every rumble report asserts `HAPTICS_SELECT`, which is SDL's "disable audio haptics" bit: the firmware mutes the very voice coils the 0xD1 stream drives. No code anywhere cleared it again, so ONE rumble left tier-A haptics silent for the rest of that pad's life — no error, nothing in a log, and the host happily streaming into a muted actuator. `DsDevice.ds5AudioHapticsReport` is the documented undo (flag0 with both bits clear); written EP0-direct when the stream starts and again after a rumble stop while a stream is live, because the stop report re-mutes on its way past. **B10 — the desktop mix could reach a controller's coils.** Pad endpoints were filtered out inside `plan()` only. The watchdog, Follow mode and the parked default all go through `judge_default`, which classifies by NAME — and a pad endpoint is deliberately stamped "DualSense Wireless Controller" so games treat it as the pad's speaker. No name rule could ever catch one. It now refuses them by identity. **B27 — an out-of-range pad aliased onto a real slot.** The 0xCD plane's pad is the only u16 index and every consumer narrowed it with `as u8` on an assumption nothing enforced, so wire pad 256 steered pad 0's speaker volumes. Rejected at the decoder, which makes the narrowings lossless by construction. An existing test had pinned the bug in place, asserting that wire pad 513 round-trips; corrected, plus a test for the 256→0 alias specifically. **B7 — caps that arrived late were never announced.** The renderer commits the tier-A trade only once its sink opens, which is well past the arrival burst's two 100 ms ticks, and `set_pad_audio_caps` only stored an atomic. The client believed it had pad audio while the host emitted nothing. The input task now compares the live registry against what the last arrival actually carried and re-arms the burst itself — no new plumbing, and no extra traffic when nothing changed. The rest: `needs_aeb_kick` is finally ACTED on (R4) — a stored-but-not-served endpoint is declined rather than opened, because `AUTOCONVERTPCM` makes it succeed and mis-route; a failed provisioning no longer latches `PROVISIONED` for the process lifetime (R5), and `host_cap` retries, so a host that started while the audio stack was busy recovers at the next connect instead of the next reboot; the loopback init timeout reaps its thread instead of detaching one per ~2 s reopen (R6); kind-change restarts are bounded (R3) since the trigger is a client-sent arrival; the devtest uses the endpoint's real channel mask (B11) instead of letting wasapi derive 0x0F against the endpoint's 0x33; the render loop asks `is_session_ended()` rather than spinning at nice -16 (R12); short writes are counted and reported instead of dropping the tail in silence (R13); and a frame addressed to another pad is dropped before it can seed the gap tracker from a foreign sequence space (R14). Verified: punktfunk-host clippy -D warnings **0 on a real Windows box**; Linux/amd64 clippy 0 with **589 tests** (pf-client-core 114, pf-inject 101, punktfunk-client-android 20, punktfunk-core 345+1+8); Android :kit: tests + :app: compile green; fmt clean. Six punktfunk-host tests fail on that Windows box. FIVE fail identically on a tree with no pad-audio code at all (QUIC `Rejected(SetupFailed)` — the box's network environment); the sixth passes 3/3 in isolation and only failed under the parallel run, on a locally-bound ephemeral port. Neither is this change. Still owed: on-glass. This is a hardware feature and none of it has been on a real DualSense since the merge. |
||
|
|
0a72959ef7 |
Merge main into feat/android-pad-audio
86 commits of main, including the whole M1-M12 haptics sweep. Twelve conflicting files; three of them were more than textual. **The capability bits collided.** Both branches allocated the SAME wire bits for DIFFERENT features: `client_caps 0x04` and `host_caps 0x20` are redundant desktop audio on main and pad audio here. Merged naively, a peer would negotiate one and get the other. Pad audio moves to the next free bits — `CLIENT_CAP_PAD_AUDIO = 0x08`, `HOST_CAP_PAD_AUDIO = 0x40` — and the `abi.rs` mirrors move with them (their compile-time equality assertions caught the mismatch, which is exactly what they are for). **Both branches also claimed ABI v15.** Main's shipped (the rumble-policy floor), so the pad-audio surface becomes **v16**. **`native/input.rs` would have reintroduced a fixed bug.** This branch resets `rumble_seq[idx]` on pad removal; M1 established that the client's reorder gate is per-connection with no reset path, so restarting the host counter strands every later envelope until it climbs back. Took main's seq-preserving `clear_pad_feedback` and kept only the branch's `pad_streams.stop(idx)`. The rest: `wiring_plan::plan` now delegates to main's `plan_with_formats`, so the pad-endpoint filter moved into that body and the predicate behind it is factored out as `is_pad_render` (also what B10 needs); `Ds5Feedback::AUDIO` derives from main's `REPORT_ID_LEN` like its siblings; `AudioCtl` joins the explicitly-listed unhandled variants so the guard-false case is covered rather than swept up by a `_`; `include/punktfunk_core.h` regenerated rather than hand-merged. |
||
|
|
92f617a989 |
Merge remote-tracking branch 'origin/main' into worktree-haptics-m12-dry
apple / swift (pull_request) Successful in 1m24s
apple / screenshots (pull_request) Skipped
ci / web (pull_request) Successful in 2m28s
ci / docs-site (pull_request) Successful in 2m30s
android / android (pull_request) Successful in 3m58s
ci / rust-arm64 (pull_request) Successful in 5m12s
windows / build (aarch64-pc-windows-msvc) (pull_request) Successful in 1m6s
ci / rust (pull_request) Successful in 8m47s
windows / build (x86_64-pc-windows-msvc) (pull_request) Successful in 2m10s
# Conflicts: # clients/android/kit/src/main/kotlin/io/unom/punktfunk/kit/GamepadFeedback.kt # crates/pf-client-core/src/gamepad.rs |
||
|
|
62d35bc4b6 |
Merge pull request 'fix(core/wire): a truncated trigger datagram stops cancelling the effect it should carry' (#45) from worktree-haptics-m10-wire into main
android / android (push) Canceled after 7s
apple / swift (push) Canceled after 0s
apple / screenshots (push) Canceled after 0s
ci / rust (push) Canceled after 0s
ci / rust-arm64 (push) Canceled after 0s
ci / web (push) Canceled after 0s
ci / docs-site (push) Canceled after 0s
docker / builders (--build-arg FEDORA_VERSION=44, ci/fedora-rpm.Dockerfile, punktfunk-fedora44-rpm, -f44) (push) Canceled after 0s
docker / builders (ci/android-ci.Dockerfile, punktfunk-android-ci) (push) Canceled after 0s
docker / builders (ci/arch-ci.Dockerfile, punktfunk-arch-ci) (push) Canceled after 0s
docker / builders (ci/fedora-rpm.Dockerfile, punktfunk-fedora-rpm) (push) Canceled after 0s
docker / builders (ci/rust-ci-noble.Dockerfile, punktfunk-rust-ci-noble) (push) Canceled after 0s
docker / builders (ci/rust-ci.Dockerfile, punktfunk-rust-ci) (push) Canceled after 0s
docker / builders-arm64cross (push) Canceled after 0s
docker / apps (., web/Dockerfile, punktfunk-web) (push) Canceled after 0s
docker / apps (docs-site, docs-site/Dockerfile, punktfunk-docs) (push) Canceled after 0s
docker / deploy-docs (push) Canceled after 0s
release / apple (push) Canceled after 0s
windows-msix / package (arm64, C:\Users\Public\ffmpeg-arm64, --no-default-features, aarch64-pc-windows-msvc, C:\t-a64) (push) Canceled after 0s
windows-msix / package (x64, C:\Users\Public\ffmpeg, , x86_64-pc-windows-msvc, C:\t) (push) Canceled after 0s
windows / build (aarch64-pc-windows-msvc) (push) Canceled after 0s
windows / build (x86_64-pc-windows-msvc) (push) Canceled after 0s
arch / build-publish (push) Canceled after 2m57s
deb / build-publish (push) Canceled after 2m52s
deb / build-publish-host (push) Canceled after 2m24s
deb / build-publish-client-arm64 (push) Canceled after 1m38s
flatpak / build-publish (push) Canceled after 6s
rpm / build-publish (43, bazzite, punktfunk-fedora-rpm) (push) Canceled after 0s
rpm / build-publish (44, fedora-44, punktfunk-fedora44-rpm) (push) Canceled after 0s
windows-host / package (push) Canceled after 0s
windows-host / canary-manifest (push) Canceled after 0s
windows-host / winget-source (push) Canceled after 0s
|
||
|
|
ffd5a33598 |
Merge pull request 'fix(core/rumble): the Deck's keepalive stops being swallowed by its own renewals' (#30) from worktree-haptics-m3-rumble-engine into main
windows-host / package (push) Canceled after 1m3s
windows-host / canary-manifest (push) Canceled after 0s
deb / build-publish (push) Canceled after 58s
deb / build-publish-host (push) Canceled after 56s
deb / build-publish-client-arm64 (push) Canceled after 49s
windows-host / winget-source (push) Canceled after 0s
rpm / build-publish (43, bazzite, punktfunk-fedora-rpm) (push) Canceled after 12s
rpm / build-publish (44, fedora-44, punktfunk-fedora44-rpm) (push) Canceled after 3s
docker / builders (--build-arg FEDORA_VERSION=44, ci/fedora-rpm.Dockerfile, punktfunk-fedora44-rpm, -f44) (push) Canceled after 0s
docker / builders (ci/android-ci.Dockerfile, punktfunk-android-ci) (push) Canceled after 0s
docker / builders (ci/arch-ci.Dockerfile, punktfunk-arch-ci) (push) Canceled after 0s
docker / builders (ci/fedora-rpm.Dockerfile, punktfunk-fedora-rpm) (push) Canceled after 0s
apple / swift (push) Canceled after 0s
docker / builders (ci/rust-ci-noble.Dockerfile, punktfunk-rust-ci-noble) (push) Canceled after 0s
arch / build-publish (push) Canceled after 56s
windows-msix / package (arm64, C:\Users\Public\ffmpeg-arm64, --no-default-features, aarch64-pc-windows-msvc, C:\t-a64) (push) Canceled after 0s
apple / screenshots (push) Canceled after 0s
windows-msix / package (x64, C:\Users\Public\ffmpeg, , x86_64-pc-windows-msvc, C:\t) (push) Canceled after 0s
docker / builders (ci/rust-ci.Dockerfile, punktfunk-rust-ci) (push) Canceled after 0s
docker / builders-arm64cross (push) Canceled after 0s
docker / apps (., web/Dockerfile, punktfunk-web) (push) Canceled after 0s
docker / apps (docs-site, docs-site/Dockerfile, punktfunk-docs) (push) Canceled after 0s
docker / deploy-docs (push) Canceled after 0s
windows / build (aarch64-pc-windows-msvc) (push) Canceled after 0s
flatpak / build-publish (push) Canceled after 49s
windows / build (x86_64-pc-windows-msvc) (push) Canceled after 0s
ci / rust (push) Canceled after 0s
ci / rust-arm64 (push) Canceled after 0s
ci / web (push) Canceled after 0s
ci / docs-site (push) Canceled after 0s
android / android (push) Canceled after 7s
release / apple (push) Canceled after 5m31s
|
||
|
|
42a0dd52be |
refactor(haptics): one copy of each thing every rumble path was transcribing
windows / build (aarch64-pc-windows-msvc) (pull_request) Successful in 1m10s
ci / docs-site (pull_request) Successful in 1m16s
apple / swift (pull_request) Successful in 1m21s
apple / screenshots (pull_request) Skipped
ci / web (pull_request) Successful in 1m37s
ci / rust (pull_request) Successful in 9m44s
ci / rust-arm64 (pull_request) Successful in 2m0s
windows / build (x86_64-pc-windows-msvc) (pull_request) Successful in 2m2s
android / android (pull_request) Successful in 5m3s
Twelve findings from the sweep's DRY/docs/dead-code tail. Most are small; three found real defects hiding behind the duplication. **The UHID event ABI existed five times.** Every UHID gamepad backend — DualSense, DualShock 4, Switch Pro, Steam Controller, Steam Controller 2 — carried its own verbatim copy of the kernel's constants plus its own `put_cstr`, and they had already drifted: `switch_pro` was missing the SET_REPORT pair entirely, and `steam_controller` read a FIXED 16-byte SET_REPORT window instead of the event's own `size`. That last one is a bug in both directions — a longer report was truncated, and a shorter one had the parser reading whatever the reused event buffer still held past the payload, i.e. acting on rumble values the game never wrote. Now one `uhid_abi` module owns the numbers plus the two accessors that are easy to get subtly wrong, with tests on exactly that. **A dead force-feedback id fallback.** ff-core's `input_ff_upload` picks a free effect slot and writes it into the effect BEFORE uinput forwards the request, so the `id == -1` branch could never run — and allocating from a local counter would have been the wrong answer anyway, since the kernel owns that id space. Removed, with a `debug_assert` where it stood. **Apple's HID path silently dropped weak rumble.** `hidByte` took the top byte with no non-zero floor, so every amplitude below 0x0100 rendered as exactly nothing. Android has always floored it at 1; this was the odd one out. That converter also existed twice byte-identically inside one Gradle module — now one `wireAmplitudeToByte`. Also: the DS5 output-report layout gets named offsets (`dualsense_proto::out_report`) documenting all three transport bases — USB 0, SDL payload −1, Bluetooth +2 — since the differing bases are transport-forced, not drift. `pf-client-core` cannot import them (it and `pf-inject` do not depend on each other, and a DualSense layout has no business in `punktfunk-core`, their only shared crate), so its copy now DERIVES its offsets by explicit subtraction and a test pins the relationship. `PUNKTFUNK_HID_EFFECT_MAX` sizes the struct it describes instead of a second literal 11 — the header now emits `uint8_t effect[PUNKTFUNK_HID_EFFECT_MAX]`. The rumble policy engine's `min_pulse_ms` and `keepalive_ms` docs stop naming cases nothing implements: no in-tree caller sets `min_pulse_ms`, and the macOS DualSense-over-BT keepalive the doc cited CANNOT be served by the quirk, because that renderer skips writes whose levels are unchanged and would swallow the engine's re-emit — it keeps its own keepalive instead. `TrackpadHaptic` is marked as staged scaffolding (the tag is on a shipped wire; removing the variant would not reclaim it). Three ×257-vs-`<<8` doc comments corrected — the scaling itself is fine, both round-trip to 255. `backstop_ms.max(160)` deleted as unreachable (the engine floors at 500). New tests for `Ds5Feedback` and for the Android rumble JNI packing on BOTH sides, with `MAX_PADS <= 16` now a compile-time assertion rather than a comment. Closes S1-S9, S11, T2, T3 (design/haptics-sweep-2026-08-03.md M12). S11's second half is NOT a defect and was left alone: `clients/session/src/main.rs` calls `set_forwarding` unconditionally on every params-build (its own comment explains why — browse mode reuses one service across launches), so `Ctl::Forwarding` routinely arrives unchanged and that early-out is what stops a redundant `sync_open` + Valve-HIDAPI cycle each launch. Verified: pf-inject clippy -D warnings 0 / 91 tests; pf-client-core + punktfunk-core clippy 0 / 437 tests (amd64 container); punktfunk-client-android 7 tests; Android :kit: 6 tests; Apple swift build + 189 tests / 0 failures; cargo fmt --all --check clean. Each new test probed by reverting its fix — the fixed SET_REPORT window fails 3, a broken pack shift fails 3, dropping the amplitude floor fails 1, and a wrong DS5 offset either fails the pin or refuses to compile. |
||
|
|
77ddd05b13 |
fix(core/wire): a truncated trigger datagram stops cancelling the effect it should carry
Three wire and ABI faults. An out-of-range pad index reached one rumble consumer and not the other. It skipped the reorder gate — the per-pad seq cursor has no slot for it — and was handed to the legacy queue, while the policy engine discarded it on its own bounds check, so the comment promising both consumers are fed was false for exactly these. An embedder draining the queue could be handed an index it would use to subscript its own per-pad array. The host never emits one, so it is malformed or hostile either way; both consumers now agree by dropping it before either sees it. The adaptive-trigger effect was the only variable-length wire field bounded on neither side. Encode appended whatever it was handed and decode took the whole tail, while its sibling raw-report field had been bounded both ways all along; there is now one constant both sides clamp to. Worse than the missing bound was the empty case: a body with no effect bytes decoded as an EMPTY effect, and downstream an empty block is written as an all-zero trigger report, which is mode 0x00 — release. A truncated datagram could therefore silently cancel the trigger effect a game was holding. That shape is now rejected outright; a genuine release is a full-length zero block and still decodes. The C ABI history had a hole and a symbol nobody versioned. v11 shipped without its line, and the rumble policy engine's C surface was added while the version constant still read 7, with no bump at all — so every core since has exported those symbols while advertising a number that never promised them. A shipped binary says what it says, so that cannot be corrected backwards; v15 instead establishes the floor that guarantees the surface, and the v11 line is written down. No code changed for the bump and nothing moved on the wire. |
||
|
|
9f1f23eb40 |
Merge pull request 'feat(wire): mid-session shard-payload renegotiation — the black screen heals in seconds, jumbo behind an opt-in' (#41) from worktree-shard-payload-reneg into main
release / apple (push) Canceled after 2m53s
rpm / build-publish (44, fedora-44, punktfunk-fedora44-rpm) (push) Canceled after 0s
rpm / build-publish (43, bazzite, punktfunk-fedora-rpm) (push) Canceled after 1s
windows-msix / package (arm64, C:\Users\Public\ffmpeg-arm64, --no-default-features, aarch64-pc-windows-msvc, C:\t-a64) (push) Canceled after 0s
windows-msix / package (x64, C:\Users\Public\ffmpeg, , x86_64-pc-windows-msvc, C:\t) (push) Canceled after 0s
windows / build (aarch64-pc-windows-msvc) (push) Canceled after 0s
windows / build (x86_64-pc-windows-msvc) (push) Canceled after 0s
windows-host / canary-manifest (push) Successful in 16s
windows-host / package (push) Successful in 11m13s
windows-host / winget-source (push) Skipped
apple / swift (push) Successful in 1m26s
android / android (push) Canceled after 3m42s
apple / screenshots (push) Canceled after 0s
arch / build-publish (push) Canceled after 3m45s
ci / rust (push) Canceled after 3m28s
ci / rust-arm64 (push) Canceled after 1m59s
ci / web (push) Canceled after 1m54s
ci / docs-site (push) Canceled after 0s
docker / builders (ci/rust-ci.Dockerfile, punktfunk-rust-ci) (push) Canceled after 0s
docker / deploy-docs (push) Canceled after 0s
flatpak / build-publish (push) Canceled after 0s
deb / build-publish (push) Canceled after 0s
deb / build-publish-host (push) Canceled after 0s
deb / build-publish-client-arm64 (push) Canceled after 0s
docker / builders (--build-arg FEDORA_VERSION=44, ci/fedora-rpm.Dockerfile, punktfunk-fedora44-rpm, -f44) (push) Canceled after 0s
docker / builders (ci/android-ci.Dockerfile, punktfunk-android-ci) (push) Canceled after 0s
docker / builders (ci/arch-ci.Dockerfile, punktfunk-arch-ci) (push) Canceled after 0s
docker / builders (ci/fedora-rpm.Dockerfile, punktfunk-fedora-rpm) (push) Canceled after 0s
docker / builders (ci/rust-ci-noble.Dockerfile, punktfunk-rust-ci-noble) (push) Canceled after 0s
docker / builders-arm64cross (push) Canceled after 0s
docker / apps (., web/Dockerfile, punktfunk-web) (push) Canceled after 0s
docker / apps (docs-site, docs-site/Dockerfile, punktfunk-docs) (push) Canceled after 0s
Reviewed-on: #41 |
||
|
|
d1c4cb18dd |
test(core/session): pin the low-MTU chunk-aligned guarantee at clamped shard sizes
apple / swift (pull_request) Successful in 1m27s
apple / screenshots (pull_request) Skipped
ci / web (pull_request) Successful in 1m2s
ci / rust-arm64 (pull_request) Successful in 1m44s
windows / build (aarch64-pc-windows-msvc) (pull_request) Successful in 1m6s
ci / docs-site (pull_request) Successful in 2m3s
windows / build (x86_64-pc-windows-msvc) (pull_request) Successful in 1m51s
ci / rust (pull_request) Successful in 8m33s
android / android (pull_request) Successful in 5m21s
PyroWave sessions are gated out of mid-session renegotiation, so a constrained path serves them through the leg-1 SESSION-START clamp. This pins the consistency that guarantee rests on: everything chunk-aligned derives from the one Welcome::shard_payload number — the host packetizes at it, the client's C-ABI parse window reads it back, and partial delivery zero-fills exact windows of it — verified at the two clamp shapes a constrained path actually produces (1216, the WARP/Tailscale budget, and the 512 floor) over the sealed loopback wire with real loss. |
||
|
|
5e319f3b77 |
Merge pull request 'fix(client/abr): the decode-cap latch fires on the knee's real presentations' (#36) from worktree-abr-decode-cap-latch into main
windows-host / canary-manifest (push) Successful in 29s
windows-msix / package (arm64, C:\Users\Public\ffmpeg-arm64, --no-default-features, aarch64-pc-windows-msvc, C:\t-a64) (push) Successful in 2m37s
rpm / build-publish (43, bazzite, punktfunk-fedora-rpm) (push) Canceled after 13m16s
apple / screenshots (push) Successful in 5m51s
flatpak / build-publish (push) Successful in 9m51s
rpm / build-publish (44, fedora-44, punktfunk-fedora44-rpm) (push) Canceled after 13m6s
windows / build (aarch64-pc-windows-msvc) (push) Canceled after 0s
windows / build (x86_64-pc-windows-msvc) (push) Canceled after 1m53s
deb / build-publish (push) Successful in 6m13s
arch / build-publish (push) Successful in 8m42s
ci / web (push) Successful in 1m3s
windows-msix / package (x64, C:\Users\Public\ffmpeg, , x86_64-pc-windows-msvc, C:\t) (push) Successful in 3m9s
apple / swift (push) Successful in 1m24s
deb / build-publish-host (push) Successful in 7m20s
ci / docs-site (push) Successful in 1m43s
ci / rust-arm64 (push) Successful in 2m32s
release / apple (push) Successful in 8m58s
android / android (push) Successful in 5m50s
deb / build-publish-client-arm64 (push) Successful in 3m24s
docker / builders (ci/android-ci.Dockerfile, punktfunk-android-ci) (push) Successful in 9s
docker / builders (ci/arch-ci.Dockerfile, punktfunk-arch-ci) (push) Successful in 8s
docker / builders (ci/fedora-rpm.Dockerfile, punktfunk-fedora-rpm) (push) Successful in 8s
docker / builders (ci/rust-ci-noble.Dockerfile, punktfunk-rust-ci-noble) (push) Successful in 7s
docker / builders (ci/rust-ci.Dockerfile, punktfunk-rust-ci) (push) Successful in 9s
ci / rust (push) Canceled after 6m55s
windows-host / package (push) Successful in 12m11s
docker / builders (--build-arg FEDORA_VERSION=44, ci/fedora-rpm.Dockerfile, punktfunk-fedora44-rpm, -f44) (push) Canceled after 1m18s
docker / apps (., web/Dockerfile, punktfunk-web) (push) Canceled after 38s
docker / apps (docs-site, docs-site/Dockerfile, punktfunk-docs) (push) Canceled after 27s
docker / builders-arm64cross (push) Canceled after 0s
windows-host / winget-source (push) Skipped
docker / deploy-docs (push) Canceled after 0s
Reviewed-on: #36 |
||
|
|
34ad3cc611 |
feat(host/wire): mid-session shard-payload renegotiation, driven by the MTU verdict
Phases 1-2 of design/shard-payload-reneg.md, on top of the Phase 0
per-frame geometry. The leg-1 watcher stops merely diagnosing the
constrained path and heals the CURRENT session; the same machinery,
inverted, takes a proven jumbo LAN up to ~8.9 KB shards.
- Messages: MSG_SHARD_PAYLOAD_CHANGED (0x08, host→client, {shard_payload
u16}) and MSG_SHARD_PAYLOAD_ACK (0x09, the echo). Asymmetric by
design: a shrink re-keys the packetizer at the next AU immediately
after sending (per-frame pinning makes ordering irrelevant; the ack is
telemetry), a grow emits nothing above the old size until the ack —
the ack is the gate even though client buffers are statically sized.
- Client: one dispatch arm in the shared pump control task (all client
families) — validate against the advertised receive bounds, ack;
out-of-bounds requests get SILENCE, not an ack, so a buggy host can
never read a granted grow out of garbage.
- Host driver: the wire_mtu watcher grows a ShardReneg arm — on a
below-ceiling verdict it still records the learned budget (session 2
starts right) and now also shrinks session 1 at the ~3-10 s verdict
mark; with the jumbo opt-in (PUNKTFUNK_JUMBO=1, or PUNKTFUNK_WIRE_MTU
> 1500 — one knob, derived) it sends the ack-gated grow after a
settled-at-sealed-jumbo proof and then stays alive as the revert
guard: quinn's blackhole detection lowering current_mtu shrinks the
wire back through the same path. The QUIC MTUD probe ceiling rises
from 1472 to the sealed jumbo size with the opt-in (per-ENDPOINT: a
few extra failed probes toward non-jumbo peers, zero cost otherwise).
- Apply point: Session::set_shard_payload drained in the send loop next
to the adaptive-FEC target, gated on no open streamed AU (a streamed
frame's shard-aligned tiling derives from the size it began with).
- Renegotiation is gated OFF for PyroWave sessions: their clients parse
chunk-aligned AUs in windows of the Welcome value pinned at session
start (read once over the C ABI), so a mid-stream re-key would corrupt
the parse — those sessions keep the leg-1 next-session clamp. This
also settles the plan's open question on the two wire_chunk consumers:
both are PyroWave-only, so the gate covers them entirely.
- Legacy peers are inert both ways: no Hello advertisement → the host
never constructs the driver; an old host never sends the message.
core: 296/296 --features quic + clippy -D warnings (macOS), fmt; the
regenerated header carries the new message ids (drift gate).
|
||
|
|
290d760ea4 |
feat(core/wire): per-frame shard geometry, jumbo ceiling, Hello advertisement
Phase 0 of mid-session shard-payload renegotiation (planning design/shard-payload-reneg.md), stacked on the leg-1 MTU resilience. All three legs are client-side and forward-compatible: deployed clients that carry them accept a mid-session shard change the moment a future host sends one, and nothing changes on the wire until then. - W0.1 — the reassembler's strict shard_bytes firewall becomes per-frame pinning: a frame's first-arriving packet pins that frame's shard size (bounds-checked to [min_shard_bytes, max_shard_bytes], even), later packets must match the pin, and the per-frame block ceiling derives from the pinned size (a session-level cap would reject legitimate post-shrink frames). The reorder race between an ordered control message and unordered video dies structurally: old-geometry frames in flight complete under their own pin while new frames arrive under the new one, and no cross-geometry splice can land in one buffer. The in-flight budget stays byte-based and exact. - W0.2 — MAX_DATAGRAM_BYTES 2048 → 9216: every receive path (transport RECV_BUF, the recvmmsg ring) now accepts sealed jumbo datagrams (9000-MTU LAN ≈ 8908-byte shards). Static buffers over resize-on-ack: the ring delta is 128 × ~7 KiB ≈ 896 KiB per client session, lazily allocated, hosts unaffected. Grep verdict: no embedder uses the constant directly, so no C ABI bump — the regenerated header rides along (drift gate). - W0.3 — trailing Hello field max_shard_payload: u16 (0/absent = legacy), the append-with-placeholder discipline of video_caps/ client_caps. One field is both the renegotiation capability flag and the jumbo ceiling; core's pump advertises it for all client families, the probe too. - Host seam for Phase 1, dead until wired: Packetizer::set_shard_payload (re-derives the block ceilings; construction delegates to it) + Session::set_shard_payload (host-only, Config::validate parity). Verification (the 0.23.0 lesson — geometry changes breed sizing bugs): the slice-wire suite re-runs at shard 512/1216/1408/8908 (exact-multiple sweep, lossy + reversed roundtrips, sentinel path, in-flight budget); mid-stream shrink→grow→revert delivery; the old-geometry reorder race; cross-geometry splice rejection; firewall bounds non-vacuous both ways; a 48-case mixed-geometry reorder-torture proptest asserting per-frame byte-identical DELIVERY and an exactly-zero final budget; and a sealed loopback session test (continuous crypto/replay) delivering frames across live re-keys — every test asserts delivered frames, never the absence of errors. core: 294/294 --features quic + clippy -D warnings (macOS), fmt. |
||
|
|
69f1db5ea9 |
Merge pull request 'feat(host/wire): MTU resilience for the video data plane' (#37) from worktree-wire-mtu-resilience into main
apple / swift (push) Successful in 1m30s
docker / apps (docs-site, docs-site/Dockerfile, punktfunk-docs) (push) Successful in 1m21s
docker / builders-arm64cross (push) Successful in 11s
windows / build (aarch64-pc-windows-msvc) (push) Canceled after 0s
docker / apps (., web/Dockerfile, punktfunk-web) (push) Successful in 1m37s
windows / build (x86_64-pc-windows-msvc) (push) Canceled after 0s
rpm / build-publish (43, bazzite, punktfunk-fedora-rpm) (push) Successful in 18m50s
windows-host / package (push) Successful in 16m8s
android / android (push) Successful in 5m39s
windows-host / winget-source (push) Skipped
windows-msix / package (x64, C:\Users\Public\ffmpeg, , x86_64-pc-windows-msvc, C:\t) (push) Successful in 3m36s
windows-host / canary-manifest (push) Successful in 30s
deb / build-publish (push) Successful in 21m51s
windows-msix / package (arm64, C:\Users\Public\ffmpeg-arm64, --no-default-features, aarch64-pc-windows-msvc, C:\t-a64) (push) Successful in 3m31s
deb / build-publish-client-arm64 (push) Successful in 9m9s
ci / rust (push) Canceled after 27m31s
flatpak / build-publish (push) Successful in 8m11s
docker / builders (--build-arg FEDORA_VERSION=44, ci/fedora-rpm.Dockerfile, punktfunk-fedora44-rpm, -f44) (push) Successful in 13s
release / apple (push) Successful in 9m14s
arch / build-publish (push) Successful in 9m41s
docker / deploy-docs (push) Successful in 6m19s
apple / screenshots (push) Successful in 6m0s
rpm / build-publish (44, fedora-44, punktfunk-fedora44-rpm) (push) Successful in 18m27s
ci / web (push) Successful in 1m3s
deb / build-publish-host (push) Failing after 30s
ci / docs-site (push) Successful in 1m15s
docker / builders (ci/arch-ci.Dockerfile, punktfunk-arch-ci) (push) Successful in 16s
docker / builders (ci/android-ci.Dockerfile, punktfunk-android-ci) (push) Successful in 20s
docker / builders (ci/rust-ci-noble.Dockerfile, punktfunk-rust-ci-noble) (push) Successful in 10s
docker / builders (ci/fedora-rpm.Dockerfile, punktfunk-fedora-rpm) (push) Successful in 21s
docker / builders (ci/rust-ci.Dockerfile, punktfunk-rust-ci) (push) Successful in 10s
ci / rust-arm64 (push) Successful in 2m41s
Reviewed-on: #37 |
||
|
|
4bc7eecf05 |
feat(host/wire): MTU resilience for the video data plane
android / android (pull_request) Successful in 3m25s
windows / build (x86_64-pc-windows-msvc) (pull_request) Successful in 2m13s
windows / build (aarch64-pc-windows-msvc) (pull_request) Successful in 3m16s
ci / rust (pull_request) Successful in 22m23s
ci / docs-site (pull_request) Successful in 1m5s
ci / web (pull_request) Successful in 1m47s
apple / swift (pull_request) Successful in 1m22s
apple / screenshots (pull_request) Skipped
ci / rust-arm64 (pull_request) Successful in 2m46s
Video datagrams are sealed at a shard payload sized for a clean 1500-byte MTU (1472-byte UDP payloads). A host whose route to the client crosses a smaller-MTU hop (a VPN/overlay adapter claiming the LAN route, a lowered NIC MTU) delivers every small flow — QUIC control, hole punch, input, audio — while 100% of video datagrams die: the client sits on a black screen reporting zero loss and the host streams into the void with every gauge green. Field-reported as 'connects fine, black screen forever'. Three legs, none of which changes a session on a healthy path: - PUNKTFUNK_WIRE_MTU operator override: shard payload derived from a given on-wire IP MTU. Wire-compatible — Welcome::shard_payload is already negotiated per session (the v4/v6 split ships two values today) and every client follows the negotiated value. - Detection: the QUIC MTU-discovery probe ceiling moves from quinn's stock 1452 to exactly the sealed video-datagram size (1472), so a control connection's settled MTU becomes a verdict on the path: settled at the ceiling proves it carries video, settled below proves it cannot. A per-session watcher samples after the search has settled (live-connection guard against mid-search false learns) and logs an actionable WARN naming the failure shape and the diagnosis commands. - Healing: the measured budget is recorded per peer IP; the next handshake clamps shard_payload to fit, so a reconnect self-heals. A later session that reaches the ceiling erases the record. Verified: core 286/286 --features quic + clippy -D warnings (macOS); host clippy -D warnings + native:: tests 44/44 (pf-lxcheck container). The regenerated C header picks up the new MIN_SHARD_PAYLOAD constant. |
||
|
|
5e19a4611f |
fix(client/abr): the decode-cap latch fires on the knee's real presentations
windows / build (x86_64-pc-windows-msvc) (pull_request) Successful in 4m26s
ci / rust (pull_request) Successful in 10m22s
windows / build (aarch64-pc-windows-msvc) (pull_request) Successful in 1m4s
ci / rust-arm64 (pull_request) Successful in 1m55s
android / android (pull_request) Successful in 3m32s
ci / docs-site (pull_request) Successful in 1m37s
apple / swift (pull_request) Successful in 1m21s
apple / screenshots (pull_request) Skipped
ci / web (pull_request) Successful in 1m10s
The client-decoder knee latch (decode_cap_kbps) was unreachable in production — zero "decode cap learned" lines across every field log, while its own doc named the exact sawtooth it exists to end (the 2026-08-03 1440p120 field trace: 220↔450 Mbps for nine minutes, five knee backoffs, no latch): - The ordinary two-bad-window backoff — the knee's most common presentation, a standing 15–45 ms decode rise below the severe tier — carried no decode evidence at decision time, because evidence was judged from the deciding window alone. Worse, the backoff the decode signal itself caused then RESET the knee streak. Now the streak carries its own attribution (streak_decode_windows): a backoff whose bad windows were all decode-flagged is decode evidence. - A cascade's second backoff can never agree with the first: a live host acks the ×0.7 request in ~100 ms, so the second sample always sits at the reduced rate — outside the ±1/8 similarity band by construction (0.7 < 7/8). The canonical test never acked between its backoffs, which is how the premise survived. Now a backoff only samples a rate the controller climbed back to (climb_since_backoff, armed by any ack that raises the rate); a drain-time backoff neither latches nor erases the reference the real knee set. - A keyframe-ask storm on a clean link (the Steam Deck presentation: the overdriven decoder wedges and begs instead of queueing — 14–19 asks at ~300 Mbps with loss_ppm=0 in the field traces) is decode evidence too; with real loss present the asks stay network-attributed. The reworked tests model the ack round-trip (choke → ack → re-climb → choke), including a regression test replaying the field trace's rates and decode figures, which must latch at its second knee encounter. |
||
|
|
2cfc82e96c |
fix(audio): budget the audio plane against the link, and close the review's gaps
Findings from the post-implementation review of design/audio-quality-and-latency.md. **The bandwidth gap (highest).** Tier `High` (256 kbps) and the redundant `0xD2` plane were added separately, each costed as "~1 % of the video budget", and nobody added them together: 256 kbps sent twice is 512 kbps — ~2.5 % of a 20 Mbps session but ~10 % of a 5 Mbps one. Audio rides QUIC datagrams, OUTSIDE the ABR loop, so ABR could neither see that nor reclaim it; a constrained link quietly handed a tenth of its bandwidth to audio while ABR carefully managed the rest. `plan_audio_budget` now makes tier and redundancy ONE decision against the session's resolved video bitrate, ordered by preference rather than cost — transparent audio beats redundant audio, since the field report was about quality and redundancy only pays under loss, so `High` alone outranks `Standard`+redundancy even though they cost the same. It can lower what the operator asked for, never raise it, and never goes below `Low`: a stream with unintelligible audio is worse than one spending a few percent more. **The Linux host kept the exact defect fixed on Windows.** `let _ = tx.try_send(samples)` — silent, uncounted data loss, where the encoder concatenates across the hole, so every drop is a click AND a permanent shift of everything after it. WP0.2 turned out to be Windows-only and had not said so. Linux now shares `capture_policy::CaptureStats`: drops counted and warned, plus per-window peak/RMS/delivered%. A Linux audio report was until now exactly as un-triageable as the Windows one was on 2026-08-03. **Apple's WP0.3 was half-done** — `bufferedMS` was added and wired to nothing. The drain thread now logs buffer/target/underruns/sheds like the other three, from one locked snapshot so the numbers in a line describe the same instant. Also: the Linux "audio format negotiated" line now says WHICH mode produced it, because that changes what it is worth — in stream-sink mode the host owns the sink so the mix cannot have been narrowed upstream, but in legacy monitor mode a 16 kHz Bluetooth sink would still be reported as a clean 48 kHz through PipeWire's resampler, the same way WASAPI's autoconvert hid it on Windows. Reading the monitored node's own rate needs a registry lookup this stream does not do; recorded as an open gap rather than implied to be covered. Two stale docs: `audio_wasapi.rs` cited `clients/windows/src/audio.rs` (deleted) and still described the pre-shared-policy "prime to ~3 quanta" behaviour. And the Apple ring's `prefill:` parameter, dead since the depth moved into the ring, is gone. Verified: clippy --all-targets -D warnings on Linux (docker) AND Windows (runner .133, forced clean rebuild of punktfunk-host + pf-client-core); core 167 tests; host 57 audio tests on Windows; Android clippy count identical to pristine (6, all documented arm64 artifacts); Apple ring re-simulated. The host suite's `gamestream::stream::tests::sender_delivers_batches` fails under qemu — the recorded environmental flake, unrelated to audio, green on the earlier less-loaded run. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> |
||
|
|
a12f1f092c |
feat(clients/audio): one de-jitter policy for all four rings, and lossless single-packet recovery
Phase 4 + WP3.2 of design/audio-quality-and-latency.md. **The defect.** Every client ring primed *up* to a target and clamped at a ceiling, and none walked the depth back *down*. Any transient — a Wi-Fi arrival burst, a host stall, or plain host-DAC-vs-client-DAC skew of a few dozen ppm — therefore added latency permanently, until an underrun happened to re-prime. Android, with no shed at all, converged on its 120 ms hard cap and stayed there for the rest of the session; that is the "audio latency is too high" report. Apple did shed, 40 ms in one go, which its own comment called "one audible blip". All four now share `punktfunk_core::audio::JitterPolicy`: depths in MILLISECONDS rather than device quanta (`3 x quantum` meant 15 ms at a 5 ms quantum and a silent 64 ms at a 20 ms one), a crossfaded 5 ms shed once the depth average has sat above target for 2 s of consumed audio, and de-prime hysteresis. Linux and Windows had never had that hysteresis — they still carried the `if ring.is_empty()` instant re-prime that Android identified as self-inflicted crackle, where one transient drain manufactured a whole target's worth of silence. Android's floor drops 40 -> 25 ms: the policy grows the target on the devices that actually underrun, instead of every device pre-paying for the worst one. The Windows ring moves from raw bytes to interleaved f32 so it can share the policy and the crossfade helper at all. Apple is the one client where the policy is hand-written in a second language, so it gets its own XCTest (`AudioRingDriftTests`). Verified here by compiling `AudioRing.swift` standalone against a simulation harness — +200 ppm for 5 minutes settles at 30 ms with zero silent callbacks, where the old ring would have ridden its 80 ms high-water mark. **WP3.2 — recovery lives in core, not in the clients.** The rebuilt frame is re-inserted into the demux queue in order, so every embedder (including any C-ABI consumer) gets a complete stream without knowing the `0xD2` plane exists, and their `AudioGapTracker` simply stops seeing the gap. `recovery_and_the_gap_tracker_agree` pins exactly that. For the same reason core advertises CLIENT_CAP_AUDIO_RED itself rather than making four embedders remember to. Verified: clippy --all-targets -D warnings and the full test suites for punktfunk-core, pf-client-core, punktfunk-host, pf-host-config under Linux/docker (163 + 61 tests); punktfunk-client-android `cargo ndk check` for aarch64 with the gate proven non-vacuous by a planted type error, and its 6 clippy findings confirmed IDENTICAL to the pristine file (all are the documented arm64-only artifacts); AudioRing.swift type-checked and simulated on macOS; fmt. The Windows client half (audio_wasapi.rs) is still not compile-verified anywhere. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> |
||
|
|
3055e29ebb |
feat(host/audio): make audio observable, fix the endpoint choice, raise the encode quality
Phases 0-3 of design/audio-quality-and-latency.md, host side.
**WP2.1 — the 2026-08-03 root cause.** The client-only loopback preference took Steam's
Streaming *Microphone* render endpoint over real hardware unconditionally, because it is
silent on the host. But that endpoint exists to carry remote VOICE, and nothing checked
whether it could carry music: on the reporter's box it won all 31 loopback opens across 25
sessions while a clean AMD HD Audio endpoint sat idle, and the whole desktop mix went
through it before reaching Opus. A silent sink now has to EARN its preference — if its mix
format narrows the mix it drops below real hardware. It is still taken when nothing better
exists (narrow audio beats no audio), but flagged so the capture side says why.
`plan_with_formats` takes a probe rather than reading WASAPI, so all 26 wiring-plan tests
still run on every platform. An unknown format counts as fine, which is asserted:
`unknown_formats_reproduce_the_formatless_plan` proves a probe failure can never make the
plan worse than it was before formats existed.
**WP0.1 — log the endpoint's ACTUAL mix format.** Everything the old log printed ("48 kHz
f32 channels=2") was our REQUEST; with `autoconvert` WASAPI converts silently from whatever
the endpoint really runs. That is why a 3,600-line log filed over an audio-quality
complaint contained nothing that could diagnose it.
**WP0.2 — count what we drop.** The capture->encode handoff was a silent lossy `try_send`:
a stalled encode thread lost chunks, the encoder concatenated across the hole, and nothing
recorded it — a click plus a permanent shift of everything after. Now counted and warned,
alongside per-window peak/RMS/delivered% so a quiet host, a broken endpoint and a stream we
are damaging ourselves stop looking identical.
**WP2.4 — stop the default-device tug-of-war.** In Assert mode the capture is bound to the
planned endpoint EXPLICITLY, so a hijacked default changes only where apps render — the old
full reopen tore the capture down for nothing. The field log shows the cost: something
re-set the default every ~4 s and each round was a teardown, a wiring pass with
IPolicyConfig writes, and an audible dropout — seven in sixteen seconds, one ending in a
2 s error backoff. Now: put the default back, keep the stream, and after four rounds in
twenty seconds concede for a minute and say so once.
**WP1.1/1.2 — encode quality.** Constrained VBR (the hard-CBR comment justifies itself with
GameStream's audio FEC, which this plane does not have) and `AudioTier::High` by default:
stereo 128 -> 256 kbps, ~1 % of a 20 Mbps session. GameStream's encoder is deliberately
untouched — its FEC really does need fixed-size packets.
**WP3.1 — redundant `0xD2` plane**, sent when the client asked for it.
**WP2.2 — `audio.output_mode`** as a first-class setting (`client_only` / `host_and_client`
/ `follow_default`), superseding the two undocumented env vars, which stay honoured. The
enum lives in pf-host-config, which is deliberately dependency-free, so the tier table stays
in core where the codec knowledge is.
`capture_policy.rs` is split out for the same reason `wiring_plan.rs` is: both encode field
behaviour, so their tests must run on Linux CI, not only on a Windows box. That split
immediately earned itself — `capture_stats_separate_silence_from_signal` caught RMS being
divided by the FRAME count while summed over interleaved SAMPLES, which inflated it by
sqrt(channels) and made a sine report an RMS equal to its own peak.
WP4.5 (open the loopback at the minimum device period) is deliberately NOT done: in shared
mode `IAudioClient::Initialize` cannot change the engine period at all, so it would be a
no-op at best and a new failure path at worst. Recorded in the code. WP2.3 (force the parked
endpoint's volume) is deferred — `wasapi` keeps IMMDevice private, so it needs new raw COM
on a path this tree cannot compile, let alone test; its diagnostic half ships as the RMS
line above.
Verified: punktfunk-host + pf-host-config clippy --all-targets -D warnings and the audio
test suite under Linux/docker (gate proven non-vacuous with a planted type error); 26
wiring-plan tests standalone; fmt. The Windows-only halves of wasapi_cap.rs and
audio_control.rs are NOT compile-verified anywhere yet.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
|
||
|
|
7077b0a0df |
feat(core/audio): bitrate tiers, a shared de-jitter policy, and a redundant audio plane
Foundation for the audio quality + latency plan (design/audio-quality-and-latency.md). All three pieces are pure and unit-tested here so the four client rings and the Windows host glue that follow stay thin. **Bitrate tiers** (`AudioTier`). The layout table's `bitrate` becomes the `Standard` value, so that tier reproduces the pre-tier wire byte-for-byte — the tier machinery is provably non-regressive. `High` (stereo 256 kbps) is the default: 5 ms Opus frames are much less efficient than 20 ms ones, so the historical 128 kbps buys roughly what ~100 kbps buys at 20 ms, while the same session carries tens of Mbps of video. Purely a host-side encoder knob — libopus reads the bitrate out of the packet, so no client change and no negotiation. **`JitterPolicy`** — the ms-denominated de-jitter state machine every client will share. Two defects it exists to fix: (1) each ring computed its target as `3 x quantum`, a sane 15 ms at a 5 ms quantum and a silent 64 ms at a 20 ms one; (2) every ring primed *up* and clamped at a ceiling, and none walked the depth back *down*, so drift/bursts added latency permanently — Android, with no shed at all, converged on its 120 ms cap. Here a depth EWMA that sits above target for 2 s of consumed audio sheds ONE 5 ms frame with a crossfade. Driven by samples consumed rather than the wall clock: allocation- and syscall-free (safe in a realtime callback) and deterministic under test. `every_preset_sheds_before_it_trims` pins the invariant that makes this real rather than decorative. The first draft had `headroom_ms` <= the shed threshold on all four presets, so the ring was trimmed back before the average could ever reach the shed point: drift correction was dead code and the ratchet test passed for the wrong reason (the hard cap did the work). `a_transient_burst_does_not_shed` caught it. The shed point is now derived from `headroom_ms` so it cannot invert again. **`0xD2` redundant audio** — each datagram carries its frame plus a copy of the previous one, so a single lost packet is reconstructed instead of concealed. Opus in-band FEC cannot do this job: LBRR is a SILK feature and the desktop encoder is CELT-only (RESTRICTED_LOWDELAY, 5 ms), so `set_inband_fec` there is a no-op. Costs no latency — the copy rides the successor, which arrives inside de-jitter slack that already exists. Gated capable-and-agreed via CLIENT_CAP_AUDIO_RED/HOST_CAP_AUDIO_RED; every other session keeps the `0xC9` wire unchanged. 0xD1 is left free for the pad-audio program. cbindgen: prefix the four new exported constants. `FRAME_MS`/`SAMPLE_RATE_HZ` as bare C macros are the same hazard the BTN_* renames already document — a clashing #define takes the last definition silently rather than failing to compile. Verified: 300 core tests, clippy -D warnings, fmt. (`c_abi` fails identically on a pristine tree — this Mac has no system libopus for the C harness link.) Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> |
||
|
|
ec4bf75a6e |
fix(core/rumble): the Deck's keepalive stops being swallowed by its own renewals
ci / docs-site (pull_request) Successful in 1m14s
apple / swift (pull_request) Successful in 1m28s
apple / screenshots (pull_request) Skipped
ci / web (pull_request) Successful in 2m54s
ci / rust-arm64 (pull_request) Successful in 4m8s
windows / build (x86_64-pc-windows-msvc) (pull_request) Successful in 4m46s
android / android (pull_request) Successful in 5m31s
windows / build (aarch64-pc-windows-msvc) (pull_request) Successful in 4m11s
ci / rust (pull_request) Successful in 9m39s
Three faults in the shared rumble policy engine, all answered by one change of shape: the free-running jitter phase becomes `last_emit` — the exact value last handed to an embedder — and every emit routes through one helper. That single field answers all three live questions: would re-sending this be a no-op device write, is this stop redundant, and would the nudge invent a stop. The Steam Deck declares a 40 ms keepalive with a 1-LSB nudge, because an SDL-class layer discards a write identical to the last one. But the nudge lived only in the keepalive branch, so every host renewal re-emitted the raw level, collided with the last jittered write, was discarded, AND re-anchored the keepalive timer. The gap between distinct device writes stretched to 80 ms at the 400 ms default TTL and 100 ms at the hatch floor — two to two and a half times the cadence the quirk exists to guarantee. Nudging on any repeat closes it: 40 ms throughout. Level (1, 0) turned that nudge into (0, 0) — the value the engine reserves for "stop now" — and handed it out with a non-zero backstop, under a live lease. It is the only such level: high must already be zero, and low ^ 1 == 0 implies low == 1. The nudge now steps the LSB up instead, so the phase still alternates and no stop is ever invented. A zero for a pad the engine already believes silent is now dropped. Under the legacy hatch the host re-sends zeros for every latched pad every 500 ms for the rest of the session, which cost Android an unconditional log line and a binder cancel() at 2 Hz per pad. The deliberate stop-burst heal is untouched, because a stop that was LOST leaves the pad buzzing, and that is exactly the guard's pass condition. The client also now bounds the lease it will honour. RUMBLE_TTL_CEIL_MS is sender-side only, so a modified or third-party host could stamp a long TTL and wedge its pump, leaving Apple — whose renderer deliberately keeps no staleness policy of its own — and a Deck slot buzzing for all of it. Every new test was proven to fail with its own fix reverted, including the two that guard against over-reach: a default-quirks pad must still get the level verbatim, or an off-by-one amplitude would land in Apple's identical-target comparison and Android's one-shots. One suspicion from the audit did NOT survive: a v2 envelope carrying ttl_ms 0 cannot take the legacy backstop, because the expiry check preempts the relay branch. No fix; pinned with a test so that ordering stays load-bearing. Verified: 17/17 rumble tests, clippy --all-targets --features quic -D warnings = 0, fmt clean, generated C header unchanged. (`c_abi_harness_round_trips` fails on this Mac with a linker error, identically on an unmodified tree.) From the 2026-08-03 force-feedback sweep (B12, B22, R9, T1). |
||
|
|
9a52c279f1 |
Merge branch 'main' into feat/android-pad-audio
ci / web (pull_request) Successful in 1m24s
android / android (pull_request) Successful in 3m55s
apple / swift (pull_request) Canceled after 0s
apple / screenshots (pull_request) Canceled after 0s
ci / rust (pull_request) Canceled after 5m1s
ci / rust-arm64 (pull_request) Canceled after 3m22s
ci / docs-site (pull_request) Canceled after 1m35s
windows / build (aarch64-pc-windows-msvc) (pull_request) Canceled after 0s
windows / build (x86_64-pc-windows-msvc) (pull_request) Canceled after 0s
|
||
|
|
5be494f490 |
merge: bring main into the pad-audio branch
ci / web (pull_request) Successful in 1m0s
windows / build (x86_64-pc-windows-msvc) (pull_request) Failing after 1m2s
apple / swift (pull_request) Successful in 1m18s
apple / screenshots (pull_request) Skipped
ci / docs-site (pull_request) Successful in 1m51s
windows / build (aarch64-pc-windows-msvc) (pull_request) Failing after 34s
ci / rust-arm64 (pull_request) Successful in 2m48s
android / android (pull_request) Successful in 3m49s
ci / rust (pull_request) Successful in 5m40s
Main had moved 34 commits past the merge-base and 13 files had diverged.
Resolving now rather than later, since the force-feedback sweep work is landing
in the same files.
Five conflicts needed hand resolution. Four were "each side added something
different" and keep both: the Forwarding and PadAudioPrefs control variants with
their handlers and setters (pf-client-core/gamepad.rs), both of the session's
pre-attach declarations (forwarding first, so slots still declare their
pad-audio caps at open time), main's WiredPlan/fingerprint alongside the
branch's pad_render_ids (audio_control.rs), and main's judge_default signature
(wasapi_cap.rs).
wiring_plan.rs was not mechanical. Main's
|
||
|
|
1ae8b4d4ca |
fix(client/abr): let the ceiling follow a host-initiated re-target
apple / swift (pull_request) Successful in 1m15s
apple / screenshots (pull_request) Skipped
android / android (pull_request) Successful in 4m8s
ci / web (pull_request) Successful in 2m1s
ci / rust-arm64 (pull_request) Successful in 2m25s
windows / build (aarch64-pc-windows-msvc) (pull_request) Successful in 1m14s
ci / docs-site (pull_request) Successful in 1m14s
windows / build (x86_64-pc-windows-msvc) (pull_request) Successful in 2m44s
ci / rust (pull_request) Successful in 9m9s
Interaction between two fixes in this series. The host now tells the client when a rebuild re-resolves an Automatic rate, and that rate can legitimately sit ABOVE the client's climb ceiling — the ceiling is the negotiated start rate until the capacity probe raises it, while the host's re-resolve answers "what do these pixels actually need" (a 1080p session mirroring a 4K panel resolves ~3× higher). Left alone, the client would learn the new rate, notice it was above a stale ceiling, and step the host straight back down off the rate it had just chosen for itself. So an ack raises the ceiling to meet it. `set_ceiling` only ever raises and still clamps to PUNKTFUNK_ABR_MAX_MBPS, which is the one limit that should bind here. No effect on ordinary acks: a climb is never requested above the effective ceiling to begin with. |
||
|
|
33ecd8e1a5 |
fix(client/abr): a granted climb disproves the learned cap
Completing the cap-escape fix. Backing the re-probe clock off to 12 s got the client asking again quickly, but each ask only LIFTED the cap by +12.5 % — so even a host that had fully recovered still granted the session its real ceiling one small step at a time, ~4 minutes from the 20 Mbps default to a 300 Mbps link. The crawl was never the point; re-learning was. A request granted IN FULL at or above the cap is the host's own word that the limit is gone. Drop the cap outright at that point instead of nudging it. A standing limit is unaffected — it answers the same re-probe with another short ack, which re-latches it and doubles its clock, exactly as before. Adds the end-to-end regression the sweep was really about: a session pinned at 20 Mbps by a transient cadence refusal, under a probe-measured 300 Mbps ceiling, now reaches 150 Mbps in 22 windows (~16 s) where it used to need ~17 minutes. |
||
|
|
e9a7373c76 |
fix(client/abr): measure delivered throughput in media bytes, not wire bytes
The controller's two throughput-driven gates both compare "what the pipeline carried" against the ENCODER's target: the utilization gate asks whether a clean window actually tested that target (a calm menu proves nothing), and the never-decaying proven mark bounds how far every later climb may step. Both were fed `bytes_received`, which counts every accepted datagram — headers, FEC parity, probe filler, audio. So the figure rose with the redundancy the host adds in ANSWER to loss: at 25 % FEC the gate passed with the encoder emitting ~55 % of target, and the proven mark inherited the same inflation permanently. The signal was weakest exactly on the lossy links it exists for. Count data-shard payload separately at the reassembler's routing decision — the same place, and for the same reason, the probe counters are already stamped — and feed the ABR that. First time both gates are dimensionally honest: a media rate compared against a media target. |
||
|
|
f7a8c2013d |
fix(client/abr): the controller stops learning the wrong lessons from one window
Six defects found by a sweep of the Automatic-bitrate path, all of them the same shape: a single window, or a single refusal, taught the controller something it then treated as permanent. - Rolling baselines (OWD, client decode, host encode) armed off ONE sample. The baseline is a rolling minimum, so one window IS the floor — and `on_ack` deliberately clears the encode baseline after every decrease we ourselves asked for, re-opening that hole each time. A calm re-seed window followed by ordinary motion read as 4 ms of "congestion", backed off, cleared again, and ratcheted toward the floor on a link that was never the problem. All three now need BASELINE_MIN_WINDOWS of evidence before they may fire, via one shared `score_baseline` (the three copies had already drifted apart). - A mode switch rebased only the encode baseline. Decode and OWD are just as mode-scoped: 4K120 decodes slower and puts bigger frames on the wire than 1080p60, so the old floor was one the new mode cleared on its first window — ~30 s of every window scoring bad, i.e. a backoff every other window. A switch UP in mode cratered the rate instead of raising it. `proven_kbps` goes with them; throughput the old mode's decoder digested is not evidence about this one. - `proven_kbps` — never decayed, and permanent authority over how far every later climb may step — was raised by any window without a decode rise, including ones scored SEVERE. The windows that overstate delivered throughput are exactly the damaged ones: a stall's backlog draining at once, a flush's queue, the FEC surge answering a loss burst. Now only clean windows raise it. - A learned cap escaped at +12.5 % per ~60 s. The host cannot distinguish a durable encoder ceiling from a climb refused while it is transiently behind cadence, and the latter routinely latches during slow start at the 20 Mbps default — from which crossing the gap to a probe-measured ceiling took upwards of twenty minutes. Re-probe after 12 s instead, doubling the interval each time the lift is immediately re-learned: a transient is out in one interval, a real ceiling settles into a slow poll. - The decode cap latched AT the rate that choked, authorizing a climb straight back into the failure, and a bare jump-to-live flush could teach a "decoder knee" from what was a network event. It now latches just under the choke rate (inside the ±1/8 band the evidence already required) and only credits a flush where the decode signal is absent and cannot speak for itself. - PUNKTFUNK_ABR_MAX_MBPS bound only probe-learned ceilings, not the negotiated start rate — so the one knob an Automatic session gives the operator did nothing when the session already started above it. It now binds at construction, and a session sitting above its ceiling steps down to it (no congestion signal will ever find that: the link is fine, the cap is policy). Also: a SetBitrate dropped by a full control queue counted toward MAX_UNACKED, so three of them retired the controller for the session while logging that an "older host" was at fault. The pump now tells the controller what happened. Wire format and ABI untouched. 34 abr tests green (3 new). |
||
|
|
20de58a78a |
fix(android/present): the panel grid can be wrong in both directions, and the margin listens to the latch
Three defects in the 0.23.0 timeline presenter, all found while root-causing the field report that turned out to be the slice wire. None of them is that bug; all three are real, and the first is the one that would still bite once it is fixed. The panel-period learner could only ever narrow. It is seeded from the display mode Kotlin asked for — and `preferredDisplayModeId` is a REQUEST the system may refuse (Smooth Display off, battery saver, thermal, an OEM governor). Ask for 120 Hz on a panel that stays at 60 and the presenter pins an 8.33 ms grid on a 16.67 ms display with no way back, for the rest of the session: it then aims at instants that never arrive and releases faster than the panel scans. The learner moves both ways now, and lives in `punktfunk_core::phase::PanelGrid` where it is host-testable and where the iOS and desktop presenters can share it. The asymmetry is kept and made explicit — narrowing is immediate (a finer real grid is always safe to subdivide onto, and it is the per-uid down-rate case the seed most often gets wrong), widening needs eight consecutive agreeing observations and then takes the narrowest of them, because one wide sample is a missed callback and eight in a row is a display that really did slow down. The glass budget was a prediction with nothing underneath it. `OnFrameRendered` already reports what actually reached glass, but the budget never consulted it, so a wrong grid could hand SurfaceFlinger frames indefinitely: BufferQueue fills, MediaCodec runs out of output buffers, the decoder stalls, and the no-output backstop starts begging for keyframes. Releases are now counted against their confirms and the presenter holds back past six outstanding — loose on purpose, since the callbacks are allowed to arrive batched and a held frame in the newest-wins slot is a dropped one. It self-clears when the confirms catch up, and writes the ledger off after the same 100 ms the stale reopen uses, so a platform that stops confirming can never wedge the stream. `qWait` and `unconfirmed` join the 1 Hz pf.present line, which is what would have made this visible from a log. The adaptive latch margin widened on `paced_drops` — the newest-wins store's own policy evictions, which happen whenever the stream out-runs the panel and say nothing about SurfaceFlinger's latch lead. On a healthy device that walked the margin to its 2.5 ms ceiling and re-imposed the display latency the P2e sweep had just measured away. It now widens on the measured latch exceeding one panel period plus the live margin, which is what a missed vsync actually looks like. Also corrects two doc comments that named `display.refreshRate` as the panel_hz source; it has been the mode table since the A024 down-rate fix. Gates: 278 punktfunk-core lib tests (7 new PanelGrid cases incl. the refused-mode regression), clippy -D warnings and fmt clean, cargo ndk check green on arm64 and armv7. Android clippy reports the same 4 warnings as the base commit and no new ones. NOT yet confirmed on glass. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> |
||
|
|
97b2c01ac1 |
fix(core/packet): a slice-streamed frame costs its own size, not the whole frame ceiling
The 0.23.0 slice wire flushes a block every MIN_STREAM_BLOCK_SHARDS, so every ordinary access unit is now opened by a SENTINEL — a header with no totals. The reassembler sized those frames at `max_frame_bytes`, which the QUIC handshake clamps to 8-64 MiB. That was survivable while sentinels were rare (the streamed path emitted one only for an AU exceeding a whole FEC block, ~281 KB); it is not survivable now that every frame is one. Two consequences, both measured: each access unit allocated and ZEROED a multi-megabyte buffer, and the in-flight budget (IN_FLIGHT_BUF_FACTOR x max_frame_bytes) was spent after ~3 concurrent frames — with production geometry, 12 ordinary AUs in flight lost 9 of them outright, every packet dropped before it could be placed. On a link with normal reorder that is a permanent loss storm: frames never complete, the re-anchor gate freezes the picture, and the client begs for keyframes. Only clients advertising VIDEO_CAP_MULTI_SLICE reach this path — Android and the Linux/Windows session client; Apple and the Windows in-process client never did, which is why it read as a platform-specific "video pipeline" fault in the field. A sentinel carries no total but does pin its own block's extent: a slice sentinel by its wire base, a legacy one by its full-K position. Size the buffer to that and grow as later blocks (or the final block's totals) reveal more. The budget is re-checked on growth for the same reason it is checked at open. The same flush also drained `pending` to empty whenever the AU's length was an exact multiple of the shard payload, leaving `finish_streamed` to seal a final block of one zero-padded FILLER shard. Its derived base overlapped the block flushed a moment earlier, retro-validation correctly read that as a lying header, and the whole AU died — one frame in every 1408 on a 1500-MTU link, ~12 s apart at 120 fps, each costing a freeze and a recovery keyframe. A flush now keeps one whole shard back, restoring the invariant `StreamedAu::pending` already documented. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> |
||
|
|
48511d1267 |
fix(abr): probe throughput is measured over the client's receive interval
The capacity probe divided client-side bytes by the HOST's burst duration — a window wrong on both edges (base snapshotted before the burst reached the host, frozen only when the ProbeResult landed, while the host's clock stops the moment ITS send window closes, before the switch/kernel queue finishes draining toward the client). On a 1 GbE link a 2 Gbps burst target "measured" 1266 Mbps and set an 886 Mbps climb ceiling the link could never carry — permanent for the session, because set_ceiling never lowers. The reassembler now stamps probe-scoped counters (bytes, packets, first/last arrival, monotonic ns) at its FLAG_PROBE routing, so video around the burst contaminates neither numerator nor denominator; the throughput divisor is the client's first→last arrival interval, with the host duration kept as the fallback when fewer than two probe packets arrived. The user-facing speed test shares the corrected computation (ProbeOutcome/PunktfunkProbeResult layouts unchanged; elapsed_ms docs updated to the new semantics). Two guards ride along: - PUNKTFUNK_ABR_MAX_MBPS clamps inside set_ceiling — the one funnel every learned ceiling passes through — so a user cap binds no matter what any probe concludes. - The controller latches decode_cap_kbps when two CONSECUTIVE backoffs carry decode-severe evidence (deep decode excursion or jump-to-live flush) at a similar pre-backoff rate, mirroring host_cap_kbps for the client decoder: a knee below the link ceiling was a permanent 30-60 s sawtooth costing a flush + dropped-frame burst per cycle (1440p120 HEVC field case, knee ~490 Mbps). One spurious flush never latches; the cap re-probes on the CAP_REPROBE_WINDOWS clock, so it lifts when the decoder recovers. Also rights the three stale "3 Gbps" probe-clamp comments (the host constant has been 10 Gbps since MAX_PROBE_KBPS moved). Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
||
|
|
ed3d236ab8 |
feat(pad-audio): DualSense audio haptics + speaker, host->client end to end
The 0xD1 pad-audio plane streams a DualSense's voice-coil haptics (back channel pair, 5 ms Opus frames) and speaker (front pair, 10 ms) per pad from a Windows host to the SDL clients, which render them into a USB DualSense's own 4-channel audio device. Wire (punktfunk-core, ABI v15): PAD_AUDIO_MAGIC 0xD1 [pad][kind][seq][pts] [opus]; CLIENT_CAP_PAD_AUDIO 0x04 / HOST_CAP_PAD_AUDIO 0x20; per-pad render capability rides GamepadArrival flags bits 8/9, sent only toward a host that advertised its cap so old hosts see byte-identical arrivals; silence is a frozen seq (mic-mute discipline), loss is a seq gap concealed via AudioGapTracker. HidOutput::AudioCtl (0xCD kind 0x06) forwards the 0x02 report's audio-control bytes 5..=10 change-only, value-deduped, with a once-per-pad "title asserted haptics-select" diagnosis log. Windows host endpoint provider (audio/windows/pad_endpoint.rs): per-pad render endpoints are additional devnode instances of Valve's Steam Streaming Speakers driver (SetupDiRegisterDeviceInfo, NOT the class installer - it needs an interactive window station), stamped with DualSense identity: desc "Wireless Controller", device name "DualSense Wireless Controller", ContainerId = the virtual pad's PFDS GUID, 4ch/48k format triplet. IPropertyStore route first, ACL-repaired registry fallback (the MMDevices keys deny writes even to SYSTEM; the owner's implicit WRITE_DAC + an ACE for S-1-5-18 resolved by SID is the way in). Provisioned at host startup (PUNKTFUNK_PAD_AUDIO, PUNKTFUNK_PAD_AUDIO_SLOTS, default 1), idempotent via a persisted PunktfunkPadIndex marker; pad endpoints are structurally ineligible for the mic/loopback wiring plan and guarded against default- device theft; capture is WASAPI loopback on the stamped endpoint. Devtest: punktfunk-host pad-endpoint ensure|remove|status. Host service (native/pad_audio.rs): per-(session,pad) thread, loopback 4ch -> pair splitter -> per-kind stereo Opus (48k LowDelay CBR 64k) -> per-kind silence gate (opens at peak>=1e-3, 250 ms hangover, gated = no send + frozen seq) -> datagrams. Spawned from the native input pump when a DualSense/Edge arrival carries audio bits and both caps negotiated; idempotent re-arrivals; reaped on remove and teardown. Client tier A (pf-client-core/pad_audio.rs): settings pad_haptics (default on) and pad_speaker (default "pad"); tier A = wired USB DS5/Edge via SDL connection state with an audio-sibling fallback; correlation maps the SDL HID path to the pad's own render endpoint (Windows: ContainerId match + 4ch gate via registry; Linux: Sony sink signature); renderer decodes both kinds into a quad interleave and plays it on the pad's endpoint (WASAPI autoconvert / PipeWire target.object, 240-2400 frame ring floor, dont-reconnect so an unplug never re-routes haptics to the desktop speakers). SDL's DualSense driver sets "disable audio haptics" whenever it drives rumble emulation, so tier-A pads suppress wire rumble and send one cleared-enable-bits effects packet to keep the actuators live; AudioCtl bytes fold back into the effects packet at report-minus-one offsets. Verification: punktfunk-core 265 tests (macOS) + clippy -D warnings (mac + Linux docker); pf-inject 85 tests (Linux docker); punktfunk-host cargo check + clippy + 19 pad tests + 46 audio-module tests (Windows box); pf-client-core 30 tests + clippy (Linux docker CI image) + cargo check (Windows box); punktfunk-client-session clippy (Linux) + check (Windows); cargo fmt --all --check clean on the final tree. NOT yet verified: any on-glass run (host deploy + real title + physical pad), the stamp-route split at runtime, exclusive-mode Initialize isolation, Linux-host emission (the per-pad PipeWire sink is not in this change - Windows hosts only). Scope excluded deliberately: tier B (Apple CoreHaptics) and tier C (haptics->rumble derivation), pad_speaker="mix", Android leg, settings UI surfaces (keys are serde-defaulted), GameStream-plane arrivals (audio_caps always 0 there). Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
||
|
|
3c509d48c9 |
feat(core/abi): report_phase earns its version — C ABI 13 -> 14
`punktfunk_connection_report_phase` ( |
||
|
|
a7143a6510 |
Merge origin/main into audio/mic-latency-echo
Main moved through the same surfaces while the audio work was in flight, so three files needed hand-resolution: - clients/windows/src/app/settings.rs — main gave Windows its speaker and microphone endpoint pickers, the gap this branch could only report. Both keep their rows: the pickers, then Echo cancellation, and the microphone description keeps the sentence naming the mute chord. - crates/pf-console-ui/src/screens/settings.rs — both sides grew the couch row list. Main's seven new rows and Echo cancellation are all reachable in Gaming Mode; the count is 22 and the rationale comment names echo cancellation among the fields that would otherwise be unreachable there. - crates/pf-presenter/src/run.rs — both sides added a stats test at the same line. Both are kept. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
||
|
|
15392bd707 |
fix(core/client): the mic queue stops hoarding a second of your voice
MIC_QUEUE claimed 64 was ~320 ms of 5 ms frames; the frames were 20 ms, so it really allowed 1.28 s — and since a full tokio mpsc can only refuse the FRESH frame, one worker stall turned the whole backlog into permanent standing mic latency. The queue shrinks to 12 and the pump's mic task now sheds oldest-first past a ~60 ms backlog, so a stall costs a short dropout and heals itself. New per-stage counters (sent / dropped-full / dropped-stale) surface through NativeClient::mic_stats for the stats HUDs. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
||
|
|
74863c96b3 |
feat(client): 4:4:4 can stay on hardware, and the overlay says what you actually got
Two halves of the same honesty problem (client-gaps handoff items 1+2,
done together as the handoff asked).
The presenter learns full chroma: `vkframe_plane_views` accepts the
2-plane 4:4:4 pool formats (8-bit, and the 10-bit 3PACK16 sibling) —
what NVIDIA's Vulkan Video reports for HEVC RExt decode — with the
accepted set extracted into `vkframe_plane_formats` and pinned by a
decision-table test. The CSC shader needed nothing: its 4:2:0 siting
correction already self-disables when the plane widths match. The VAAPI
leg gets the same treatment (NV24 in `drm_fourcc_for` and the dmabuf
import, full-size chroma plane), and the Vulkan decoder's sw-format
gate admits NV24/P410. 3-plane 4:4:4 stays rejected — it needs a third
CSC binding — and demotes cleanly like every other unsupported format.
Design call (the handoff's fork, argued here as requested): (B)+(C),
not (A). No capability probe gates VIDEO_CAP_444 — software decode is
the guaranteed display floor on both OSes (swscale → RGBA), the decoder
ladder demotes on its own, and a probe-gated bit would turn the switch
inert on exactly the boxes that rely on the fallback. What (A) wanted
from a prediction, the overlay now delivers as ground truth:
The Detailed tier prints the encoder's target next to the measured
rate — `19.4 Mb/s · target 20 Mb/s (auto)` — and the resolved chroma,
`4:4:4→4:2:0` when the host declined the ask (mirroring `HDR→SDR`).
The target is live: `NativeClient::current_bitrate_kbps()` mirrors
every BitrateChanged ack, so an Automatic session's ABR re-targets are
visible as they move. This is the figure whose absence let the
settings-drop bug (
|
||
|
|
7cf71dd218 |
feat(clients): the Apple deadline presenter reports its latch phase
Phase-locked capture had no client half on Apple — the host's v3 controller (grid-locked submits, coherence-gated engage) shipped with only the Android reporter feeding it. Now the stage-4 link thread flushes the same v2 circular arrival-phase statistic at ~1 Hz: - PhaseReporter (Stage2Pipeline): the decode callback deposits per-AU reassembly-completion stamps, the CAMetalDisplayLink update deposits the latch grid (period = window-min of update spacing), and the flush ports punktfunk_core::phase::circular_latch verbatim — a period-smeared Wi-Fi link reads coherence ≈ 0 and the host correctly never engages; a wired link opens the gate. Binds/unbinds per session like DecodeReport. - PunktfunkConnection.reportPhase wraps the existing ABI entry point. - Hello honesty: iOS/tvOS advertise CLIENT_CAP_PHASE_LOCK (macOS stays without — the stage-2 arrival presenter has no latch grid), Android now sets the bit its reporter already earned, and the ABI grows the PUNKTFUNK_CLIENT_CAP_PHASE_LOCK mirror const (header regenerated). Advisory in v1: the host arms on report receipt. - Stage-3 doc comment no longer calls itself the tvOS default (stage-4 took that over in the 2026-07 rebuild). Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |
||
|
|
86d4b36bfa |
chore(core): the Apple recv path documents its unsafe blocks
clippy -D warnings only lints this cfg(target_vendor = "apple") file on a Mac, which CI never does — the three recv/recvmsg_x blocks predate the undocumented_unsafe_blocks sweep and kept every local Apple-side clippy run red. Co-Authored-By: Claude Fable 5 <noreply@anthropic.com> |